Friday, April 13, 2012

Indirect land-use change (ILUC)



'Indirect land-use change' (ILUC) means that if you take a field of grain and switch the crop to biofuel, somebody somewhere will go hungry unless those missing tonnes of grain are grown elsewhere.
Economics often dictates that the crops to make up the shortfall come from tropical zones, and so encourage farmers to carve out new land from forests.
Burning forests to clear that land can pump vast quantities of climate-warming emissions into the atmosphere, enough in
theory to cancel out any of the benefits that biofuels were meant to bring.
The European Commission has run 15 studies on different biofuel crops, which on average conclude that over the next decade Europe's biofuels policies might have an indirect impact equal to 4.5 million hectares of land – an area the size of Denmark.
Some in the biofuels industry argue that the Commission's science is flawed and that the issue could be tackled by a major overhaul of agricultural strategy to improve productivity or by pressing abandoned farmland back into action. Waste products from biofuels production can also be fed to animals, they say, so reducing the pressure on land resources.

Conventional biofuels like biodiesel increase carbon dioxide emissions and are too expensive to consider as a long-term alternative fuel, a draft EU report says.


The study ‘EU Transport GHG [greenhouse gases]: Routes to 2050’ estimates that before indirect effects are counted, the abatement cost of reducing Europe’s emissions with biofuels is between €100-€300 per tonne of carbon.
At current market prices, this would make their CO2 reduction potential up to 49 times more expensive than buying carbon credits on the open market at €6.14 a tonne.   
But the EU’s authors conclude that it “it is not possible (and useful) to determine cost effectiveness figures for [conventional] biofuels” because their indirect effect - measured in cleared forests and grasslands (‘ILUC’) - make it a CO2-emitting technology.
The latest report will feed a growing unease about the reasons for the EU's original biofuels policy - justified in environmental terms - and the way it has developed since.
“The truth is that policy makers inside and outside Europe are doing biofuels for other reasons than environmental ones,” said David Laborde, a leading agricultural scientist and author of key biofuels reports for the European Commission.
“It’s a new and easy way to give subsidies to farmers, and it’s also linked to industrial lobbies that produce these biodiesels, and also what they will call energy security,” he told EurActiv.
“They want to diversify the energy supply, and keep their foreign currencies instead of buying oil from the Middle East. They prefer to keep it for something even if it is not efficient or even green,” he added.
The '10% target'
In 2007, the EU first set a 10% target for the use of blended biofuels in transport by 2020.
Although the target was re-sourced from ‘biofuels’ to ‘renewable energy’ in 2009, analysts say that 8.8% of the EU target will still be provided by biofuels, and up to 92% of that will come from conventional biofuels like biodiesel.
Industrial associations disagree, putting the EU’s ratio of sugar-based ethanol, one of the best-performing biofuels, to biodiesel, one of the worst, at 22%-78%.
But both the original announcement and the Renewable Energy Directive two years later conditioned biofuel use on subsequently neglected criteria of cost-efficiency, sustainability and, where available, the use of second generation fuels.  
“I don’t think we are there on cost-effectiveness,” said Géraldine Kutas, Brussels representative of the Brazilian Sugarcane Industry Association (UNICA).
“There are no monetary provisions to support this in the directive, and second generation biofuels are still a promise. They are not commercially available yet,” she said.
Even trying to address the issue of indirect sustainability criteria for biofuels had gummed up the EU's policy-making process, she acknowledged. 
French farmers
Research by EurActiv has uncovered evidence that the EU’s original biofuels target was set as much for industrial and political reasons, as environmental concerns.
Claude Turmes, the European Parliament’s rapporteur responsible for steering the Renewable Energy Directive into law, said that business lobbies had influenced his negotiations with the then-French Presidency of the European Council.
“There were two lobbies, the sugar farmers lobby and the German car industry who tried to prevent the EU’s CO2 and cars legislation,” Turmes (Greens/Luxembourg) told EurActiv.
“The origin of the 10% renewables in transport target was the fact that these two lobbies joined forces to impose it on the Commission.”
EU insiders spoken to by EurActiv agreed, saying that biofuels had been a quid-pro-quo demanded for the imposition of ‘greener’ measures in the directive that would encourage wind and solar energy, and cut emissions. 
European sugar farmers had suffered in the 2006 Common Agricultural Policy reform which reduced the guaranteed sugar price by 36% and opened up the European sugar market to global competition.
A guaranteed market for agrifuel made from sugar-based ethanol held out some prospect of compensation. And the strength of the French farmers lobby made removing the 10% target “an absolute no go area” for Paris, Turmes said.
“The farm industry was obviously interested in biofuels, biochemicals and the bio-economy more generally,” Kutas added.
But Europe’s sugar farmers profited far less from the EU’s biofuels policy than growers of feedstocks for biodiesel, better suited to the continent’s diesel-based auto fleet.  
Car industry
EU officials say that the car industry was also instrumental in pushing for the biofuels target to be included as a compromise to bridge the gap between the 130g of CO2 per km that the EU wanted as a target for 2012 and the 140g that the car industry was prepared to offer.
“It was no secret,” a source told EurActiv. “It was very clear what they were lobbying for and it went all the way up the Commission”.
As a result, officials in the EU’s energy directorate responsible for biofuels did not treat research which questioned the fuel’s environmental credentials in the same light as that which supported it, multiple sources confirm.  
The EU’s biggest error was “that we started to make a policy without knowing the effect it would have,” Laborde said.
“We are now discussing the land use effect after saying for ten years that we need biofuels to reduce emissions,” he went on. “It was a serious mistake.”
Indirect emissions proposal
Brussels is due to publish a proposal measuring the indirect emissions caused by biofuels later this year, distinguishing between low-emitting biofuels such as ethanol and high-emitting ones like biodiesel.
But the EU’s decision-making process has been paralysed by the ongoing dispute between its energy directorate – which does not want ILUC factors considered – and its climate directorate, which does. And there are other problems too.    
Both the Renewable Energy and Fuel Quality directives contain ‘grandfathering’ clauses exempting all existing biofuels installations as of 2014 from further legislation until 2017.
As the biofuels industry’s existing capacity is already on the cusp of meeting the 10% target, according to a new report by the environmental consultants Ecofys, this would create massive overcapacity.  
The Institute for European Environmental Policy has calculated that on current trends, land conversion of between 4.7 million and 7.9 million hectares would be needed to accommodate the extra biofuels production, an area roughly the size of Ireland. 
But the introduction of any ILUC factor would probably rule out high-emitting conventional biodiesels, the majority of Europe’s biofuels production.
That would create a political backlash in EU states such as France and Germany, and potentially tear up the compromise which allowed the Renewable Energy Directive to be passed in the first place.  
For now, the proposal remains stuck in the corridors of an EU that appears equally frightened of the political consequences of admitting a policy mistake and the environmental consequences of denying it.

CCRES special thanks to 
Brussels Network Office:
International Press Centre
Boulevard Charlemagne, 1 b1
B-1041 Brussels
CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

Wednesday, April 11, 2012

News and Events by CCRES April 12, 2012

 

Croatian Center of Renewable Energy Sources

News and Events April 12, 2012


Energy Department Offers up to $15 Million for Biomass Fuel Supplements

The Energy Department announced on April 6 up to $15 million is available to demonstrate biomass-based oil supplements that can be blended with petroleum. Known as "bio-oils," these precursors for completely renewable transportation fuels could be integrated into the oil refining processes that make conventional gasoline, diesel, and jet fuels without requiring modifications to existing fuel distribution networks or engines. The goal is to help reduce U.S. use of foreign oil and diversify the nation's energy portfolio.
The Energy Department expects to fully fund between five and ten projects in fiscal year 2012 to produce bio-oil prototypes that can be tested in oil refineries and used to develop comprehensive technical and economic analyses of how bio-oils could work. The prototype bio-oils will be produced from a range of feedstocks. Domestic industry, universities, and laboratories are all eligible to apply. The results will inform future efforts directed at advancing bio-oil technologies and bringing these renewable fuels to market. See the Energy Department press release and the funding opportunity announcement.

Interior Department Announces Next Steps for Atlantic Offshore Energy

The U.S. Department of the Interior (DOI) and the Bureau of Ocean Energy Management (BOEM) announced on March 28 that DOI is taking steps to assess the conventional and renewable energy resource potential in the Mid- and South Atlantic. The draft programmatic environmental impact statement (PEIS) released for public comment will help inform future decisions about whether, and if so where, leasing would be appropriate.
This milestone advances BOEM's regionally tailored approach to Outer Continental Shelf (OCS) exploration and development, which stresses the importance of better understanding resource potential in the Mid- and South Atlantic. The draft PEIS assesses proposed geological and geophysical activities, including seismic and other offshore surveys, in the Mid- and South-Atlantic planning areas.
The PEIS also evaluates the potential environmental effects of multiple geological and geophysical activities in these OCS planning areas and, where needed, outlines mitigation and monitoring measures that will reduce or eliminate potential impacts. A variety of techniques is also used to understand the potential to site renewable energy structures and locate marine mineral resources such as sand and gravel. BOEM also uses geological and geophysical information to fulfill its statutory responsibilities to oversee the safety of offshore operations; support environmental impact analyses and protect the environment; ensure receipt of fair market value for leased federal lands; and conserve oil and gas resources. See the DOI press release and the draft PEIS.

Transportation Department Awards $13.1 Million for Green Transit

The U.S. Department of Transportation on April 2 awarded $13.1 million to fund 11 innovative research and demonstration projects under the Federal Transit Administration's (FTA) National Fuel Cell Bus Program. The program advances hydrogen fuel cell power for transit buses and is designed to reduce U.S. dependence on foreign oil and promote cleaner air.
The funds are shared by three consortia: Calstart in Pasadena, California; the Center for Transportation and the Environment in Atlanta, Georgia; and the Northeast Advanced Vehicle Consortium in Boston, Massachusetts. The projects will directly impact organizations and municipalities in seven states, including California, Georgia, Ohio, Massachusetts, New York, North Carolina, and South Carolina. All three consortia will engage in work to develop various fuel cell components, test U.S.-made buses under real-world conditions powered by fuel cells, and conduct educational outreach.
According to DOE's National Renewable Energy Laboratory and the FTA, every fuel cell-powered bus put into service in the United States could reduce the amount of carbon released into the atmosphere by 100 tons annually and eliminate the need for 9,000 gallons of fuel every year over the life of the vehicle. For buses currently running on diesel fuel, that translates into a savings of more than $37,000 per year, per vehicle. See the Transportation Department press release and the project descriptions PDF.

California Commits $100 Million to Build EV-Charging Stations

Photo of a car with an electric cord charging outdoors.
A new initiative in California will increase the infrastructure for EVs.
Credit: DOE, Charles Watkins
California Governor Edmund G. Brown, Jr. joined with the California Public Utilities Commission on March 23 to announce a $100 million dollar fund for the construction of a statewide network of charging stations for electric vehicles (EVs). The plan calls for at least 200 public fast-charging stations and another 10,000 plug-in units at 1,000 locations across the state. The funds come from a $120 million settlement with NRG Energy, Inc. that stems from ten-year-old claims during the state's energy crisis. The settlement did not involve EVs.
The network of charging stations funded by the settlement will be installed in the San Francisco Bay Area, the San Joaquin Valley, the Los Angeles Basin, and San Diego County. The goal is to support cleaner air and reduce dependence on foreign oil. Governor Brown also announced that he has signed an executive order laying the foundation for 1.5 million zero-emission vehicles on California's roadways by 2025. In January, the California Air Resources Board voted to require the largest automakers to derive 15%, or about 1.4 million, of their annual California sales from EVs or other zero- or near-zero emissions vehicles by 2025. See the executive order and the governor's press release.

GSA Slates 30 Federal Buildings for Deep Energy Retrofits

The U.S. General Services Administration (GSA) on March 22 announced that 30 of its federal buildings, totaling nearly 117 million square feet, are participating in a challenge to achieve deep energy savings. The Deep Retrofit Challenge is asking energy service companies to make these buildings more energy efficient using energy service performance contracts (ESPCs). Retrofit projects at these buildings will contribute to the goals of a presidential memorandum on implementing energy savings projects and performance-based contracting. In December 2011, President Obama directed federal agencies to enter into at least $2 billion in performance-based contracts over the next two years to achieve substantial energy savings and create jobs.
Through the Deep Retrofit Challenge, GSA is asking energy service companies to provide the maximum energy performance savings possible for each of the participating buildings. GSA will learn with the energy service companies how best to achieve maximum energy savings through technology adoption, process improvements, and risk management, and will share that knowledge with both the rest of the federal government and the private sector.
At no net cost to taxpayers, ESPCs retrofit buildings for guaranteed greater energy performance. The retrofit projects are paid for through energy savings over time. An ESPC is an agreement between a federal agency and an energy service company. The energy service company conducts a comprehensive energy audit for the federal facility and identifies improvements to save energy. Sixteen energy services companies are pre-approved by and under contract with DOE to bid on these projects. The energy service companies consult with GSA on the designs, construct projects that meet GSA's needs, and arrange the necessary funding. And, the energy service company guarantees that the improvements will generate energy cost savings sufficient to pay for the project over the term of the contract. After the capital is paid back, any additional cost savings accrue to GSA. See the GSA press release.

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

  special thanks to U.S. Department of Energy | USA.gov

Announcing $4 Million for Wireless EV Charging

Imagine being able to charge an electric vehicle—on the go or at home—without ever having to plug in.
A new funding opportunity from the Energy Department seeks to accomplish just that. We're announcing up to $4 million to develop wireless chargers for electric vehicles (EVs). This funding opportunity is made available through the Office of Energy Efficiency and Renewable Energy's Vehicle Technologies Program.
EV wireless charging has the potential to accelerate the adoption of EVs—by making them more convenient for consumers to charge, whether they’re at home or away, and to reduce the total energy storage requirements of EVs, unlocking the benefits of lighter and smaller battery packs, lighter vehicles, higher efficiency and longer ranges. Read the complete story in the Energy Department's Energy Blog.


Croatian Center of Renewable Energy Sources (CCRES)

 

Tuesday, April 10, 2012

Mediterranean Solar Plan


 

Mediterranean Solar Plan (MSP)

It seemed like a good idea at the time. Back in 2008 a group of Southern European and North African leaders clubbed together to form the Union for the Mediterranean and hatched an ambitious energy project.
The Mediterranean Solar Plan, unveiled in July 2008 in Barcelona, aimed to provide “a common answer to the energy and climate challenges of the Euro-Mediterranean region,” according to a document presented by Philippe Lorec, France’s deputy director general for Energy and Climate.
To do this, the plan advocated meeting two targets by 2020: a 20% reduction in primary energy use compared to 2005 levels, and the development of 20GW in new renewable energy generation.
An update published by Lorec, the plan’s project manager, in October 2009 specified that CSP would make up 26% of the total, with a further 45% contribution from PV, 26% from wind, 2% from biomass and 1% from hydro. The plan envisaged 74% private funding.
At that point the scene was set to begin work in earnest between 2010 and 2012. Six Middle East and North African (MENA) countries were changing their legal frameworks to allow for national solar plans, renewable energy laws and the introduction of specific tariffs.
A total of 67 projects were in progress across MENA, including 25, worth 4.1GW, supported by national programmes, 14 (worth 650MW) funded privately and 13 (885MW) backed by clean tech funds. 
Cracks, however, were beginning to appear in the plan’s foundations. The Union for the Mediterranean summits planned for 2009 and 2010 were sidelined because of concerns over the Arab-Israeli peace process.
Subsequent progress has been halting, not least because of the European sovereign debt crisis from late 2009 and the Arab Spring from December 2010.
Internal affairs
These events have led countries north and south of the Mediterranean to focus more on their internal affairs than on reaching out to each other. And they have also put the kibosh on many national renewable energy plans. Witness Spain, for example.
Where does that leave the Mediterranean Solar Plan?
Right now it is pretty much off the radar as far as most renewable energy observers are concerned. “I have few details on what is going on,” states IHS Emerging Energy Research solar power advisory analyst Josefin Berg, for instance.
And Luis Crespo Rodríguez, general secretary at Protermosolar, the Spanish CSP industry association whose beleaguered members currently offer the best hope of delivering most of the solar thermal power needed for the Mediterranean Solar Plan, scoffs: “It’s not even defined yet.
“The Mediterranean Solar Plan is stuck. There is no definition of the project or the execution plan.”
He adds: “As soon as it is properly defined, Spain will then position itself accordingly, and if the development of our industry has been fully supported then we will be in a better state to do so, so in that sense there is an indirect effect. But it still needs to be defined.”
With all that said, there are still some signs of life within the Mediterranean Solar Plan.
In January, Medgrid, a 21-strong industrial consortium featuring CSP players such as Abengoa, Alstom and Siemens, signed a memorandum of understanding with the Union for the Mediterranean’s secretariat to help drive the plan forward.
Financial tools
And on March 16 the European Commission gave its formal approval to the plan’s first operational financial tool, the Mediterranean Solar Plan Project Preparation Initiative.
The tool, which will cover the cost of technical assistance for the preparation of sustainable energy investment projects, is only available in Algeria, Egypt, Israel, Jordan, Lebanon, Morocco, Syria, Tunisia, West Bank and Gaza. And the level of support has not been cited.
Furthermore it is just “intended to support investment projects which are already at a sufficient advanced stage of preparation, and which have a high probability of being financed and implemented in a reasonable timeframe,” according to a press statement.
Nevertheless these announcements, coming after a long period in which the only news from the Union for the Mediterranean was on the appointment of officials, show the Mediterranean Solar Plan could be poised for a comeback. 
“At this stage I guess we just haven't seen much tangible evidence that it will go to the extent they desire, not least because recently in North Africa, with the Arab spring, the focus has shifted somewhat,” accepts Andrew Stiel, a CSP analyst with Bloomberg New Energy Finance.
However, he adds: “All these things are very contingent on government announcements, so tomorrow Saudi Arabia could turn around and say, ‘right, we want 10GW in five years’. That's a game-changer. I don't think you can write it off.
CCRES special thanks to Jason Deign
CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES) 

How big do you think turbines will be by 2020?



Today’s turbines can be mind-bogglingly big, but big is not necessarily better. Mike Woebbeking, Vice President of GL group and chair of a session at EWEA 2012 in Copenhagen on 16 April that delves into turbine size, tells that size isn’t everything… 
How has the average turbine size changed over the last decade?
Ten years ago the average size was around 1.5 MW, today it is close to 3 MW. Thus the average size of onshore wind turbines more or less doubled. For offshore wind this is more difficult to say. A decade ago there were only very few turbines installed offshore. The average size could be assumed to be around 1.5 MW. Today the average offshore turbine size is below 5 MW, however 7 MW turbines and bigger are under development. The average size of offshore turbines has roughly tripled within a decade.
How big do you think turbines will be by 2020?
In 2020 the average onshore turbine will be 4 MW. The average offshore turbine will be in the range of 12 MW.
What are the pros and cons of bigger turbines?
This is difficult to answer as there are many pros and cons for all existing types of turbines, sizes and concepts and the answer is very much depending on the site, its conditions and the strategy of the project as well as availability of components and turbines, not to mention pricing, capital and operational expenditure.
And how about smaller turbines?
If we are talking about smaller turbines, the benefits are easier ways of installation, availability of these products, building permissions (depending on the market) etc. However the capacity factors are limiting.
What are you hoping to get out of EWEA 2012?
Besides all the networking opportunities we will learn about the history in wind turbine development and challenges of the past, delegates will understand the actual challenges and needs in turbine design of the present as well as take home solutions to face these and last but not least all of us will look into the future and foresee the forthcoming turbine technology.
More on EWEA 2012: www.ewea.org/annual2012
Croatian Center of Renewable Energy Sources (CCRES)

Monday, April 9, 2012

Actual prices per one liter of fuel in EU April 9, 2012




April 9, 2012 Unleaded (Superbleifrei, Euro sans plomb, Euro95)
Diesel (Gazole, Gasóleo)
Country


Retail Price
Price (Excluding VAT)



Retail Price
Price (Excluding VAT)
Austria € 1.476 € 1.230
€ 1.404 € 1.170
Belgium € 1.752 € 1.448
€ 1.553 € 1.283
Bulgaria € 1.375 2.69 лв. € 1.146 2.24 лв.
€ 1.365 2.67 лв. € 1.138 2.23 лв.
Cyprus € 1.380 € 1.179
€ 1.387 € 1.185
Czech Republic € 1.514 37.30 Kč € 1.262 31.08 Kč
€ 1.510 37.20 Kč € 1.258 31.00 Kč
Denmark € 1.856 13.81 kr € 1.485 11.05 kr
€ 1.638 12.19 kr € 1.310 9.75 kr
Estonia € 1.397 € 1.164
€ 1.405 € 1.171
Finland € 1.717 € 1.396
€ 1.575 € 1.280
France € 1.730 € 1.446
€ 1.558 € 1.303
Germany € 1.696 € 1.425
€ 1.527 € 1.283
Greece € 1.838 € 1.494
€ 1.590 € 1.293
Hungary € 1.523 447 Ft € 1.199 352 Ft
€ 1.523 447 Ft € 1.199 352 Ft
Ireland € 1.656 € 1.346
€ 1.585 € 1.289
Italy € 1.859 € 1.536
€ 1.735 € 1.434
Latvia € 1.439 Ls 1.007 € 1.180 Ls 0.825
€ 1.389 Ls 0.972 € 1.139 Ls 0.797
Lithuania € 1.434 Lt 4.95 € 1.185 Lt 4.09
€ 1.347 Lt 4.65 € 1.113 Lt 3.84
Luxembourg € 1.470 € 1.278
€ 1.277 € 1.110
Malta € 1.510 € 1.280
€ 1.390 € 1.178
Netherlands € 1.855 € 1.559
€ 1.508 € 1.267
Poland € 1.395 5.78 zł € 1.134 4.70 zł
€ 1.388 5.75 zł € 1.128 4.67 zł
Portugal € 1.766 € 1.436
€ 1.549 € 1.259
Romania € 1.308 5.72 lei € 1.055 4.61 lei
€ 1.347 5.89 lei € 1.086 4.75 lei
Slovakia € 1.571 € 1.309
€ 1.477 € 1.231
Slovenia € 1.528 € 1.273
€ 1.358 € 1.132
Spain € 1.505 € 1.275
€ 1.398 € 1.185
Sweden € 1.794 15.78 kr € 1.435 12.62 kr
€ 1.704 14.99 kr € 1.363 11.99 kr
United Kingdom € 1.722 £ 1.424 € 1.435 £ 1.187
€ 1.796 £ 1.485 € 1.497 £ 1.238
EU AVERAGE € 1.590 € 1.318
€ 1.490 € 1.233
CCRES is your trusted source for past, present and projected Energy Prices and Trends.

Sunday, April 8, 2012

HAPPY EASTER



HAPPY EASTER

May your Easter be blessed with health, longevity, love and a lot of happiness!

CCRES Team

Thursday, April 5, 2012

Using algae for reducing the CO2

Algae live on a high concentration of carbon dioxide and nitrogen dioxide.  These pollutants are released by automobiles, cement plants, breweries, fertilizer plants, steel plants. These pollutants can serve as nutrients for the algae.
When fuels are burned there remains, besides ash, a certain number of gas components. If these still contain combustion heat, they are called heating gases. As soon as they have conveyed their energy to the absorbing surfaces of a heat exchanger, they are called flue or stack gases.

It further contains a small percentage of pollutants such as particulate matter, carbon monoxide, nitrogen oxides and sulfur oxides.

Carbon dioxide (CO2) 
—the primary greenhouse gas responsible for global warming—along with other pollutants.
Its composition depends on what is being burned, but it usually consists of mostly nitrogen (typically more than two-thirds) derived from the combustion air, carbon dioxide (CO2) and water vapor as well as excess oxygen (also derived from the combustion air).

Using algae for reducing the CO2 concentration in the atmosphere is known as algae-based Carbon Capture technology. The algae production facilities can thus be fed with the exhaust gases from these plants to significantly increase the algal productivity and clean up the air.  An additional benefit from this technology is that the oil found in algae can be processed into a biodiesel. Remaining components of the algae can be used to make other products, including Ethanol and livestock feed.

This technology offers a safe and sustainable solution to the problems associated with global warming.
CCRES SPIRULINA
project of
Croatian Center of Renewable Energy Sources (CCRES)

Wednesday, April 4, 2012

News and Events by CCRES April 04, 2012

 

Croatian Center of Renewable Energy Sources

News and Events April 04, 2012

News and Events

Obama Administration Announces Great Lakes Wind Projects Agreement

The Obama Administration joined the governors of Illinois, Michigan, Minnesota, New York, and Pennsylvania on March 30 to announce the signing of a memorandum of understanding (MOU) streamlining offshore wind development in the Great Lakes. DOE, the U.S. Department of Defense, the U.S. Army, the U.S. Coast Guard, the U.S. Environmental Protection Agency, the White House Council on Environmental Quality, and the Great Lakes Offshore Wind Energy Consortium are among the signatories.
The MOU will enhance collaboration between federal and state agencies to speed review of proposed offshore wind projects. Specifically, the agencies will develop an action plan that sets priorities and recommends steps for achieving efficient and responsible evaluation of proposed offshore wind power projects in the Great Lakes region. The area has the potential to produce more than 700 gigawatts of energy from offshore wind, about one fifth of the total U.S. offshore wind potential. DOE's National Renewable Energy Laboratory estimates that each gigawatt of offshore wind installed could produce enough electricity to power 300,000 homes.
To safely and responsibly develop offshore wind resources, federal and state agencies—which share jurisdiction in the Great Lakes—must fully evaluate the potential social, environmental, safety, and security impacts of projects. See the DOE press release, a fact sheetPDF, and the complete MOUPDF.

DOE Awards More than $5 Million to Reduce Cost of Advanced Fuel Cells

Photo of a large, square fuel cell outdoors behind a fence.
A DOE initiative will focus on boosting the performance of fuel cell systems for vehicles and stationary applications, like this one.
Credit: DOE
DOE announced on March 29 its investment of $5 million in two research projects that will aim to reduce the cost of advanced fuel cells. The department awarded $3 million to 3M Company in St. Paul, Minnesota, and $2 million to Eaton Corporation in Southfield, Michigan. The 3-year projects will focus on boosting the performance of fuel cell systems for vehicles and stationary applications while driving down costs.
Both projects will seek to lower the cost of advanced fuel cell systems by developing durable and highly efficient fuel cell components. 3M's project will focus on boosting the performance of fuel cell systems with an approach based on integrating their state-of-the-art catalyst with membranes and other fuel cell components. 3M partners include General Motors, DOE's Lawrence Berkeley National Laboratory, and Michigan Technological University. Eaton's work will concentrate on improving the performance of fuel cell systems. Eaton's project will modify their existing air compression technology to deliver more power and better fuel economy at a lower cost. Eaton partners include Kettering University, Ballard Power Systems, and Electricore, Inc.
DOE's hydrogen and fuel cell research and development program has led successful research and development efforts, resulting in more than 300 patents and delivering 30 products to market. At the same time, fuel cell durability has doubled and the cost of fuel cells has dropped 30% since 2008. See the DOE press releases about 3M Company and Eaton Corporation, as well as DOE's Hydrogen and Fuel Cells website.

DOE Offers $10 Million to Promote Zero-Emission Cargo Transport Vehicles

DOE announced on March 20 that up to $10 million will be available this year to demonstrate and deploy electric transportation technologies for cargo vehicles, such as trucks and forklifts. DOE's support for the development and demonstration of innovative alternative vehicle technologies is designed to help reduce U.S. reliance on gasoline and diesel and oil imports.
Electrifying cargo transportation vehicles and infrastructure will slash petroleum use, carbon emissions, and air pollution at transportation hubs, such as ports. DOE seeks applicants to demonstrate cost-effective zero-emission cargo transport systems and collect detailed performance and cost data to analyze the benefits and viability of this approach to freight transportation. This funding opportunity is open to local governments and private companies, with federal funds matched in a 50% cost share. Applications are due May 15, 2012. See the DOE Progress Alert and the Funding Opportunity Announcement.

Ball State Completes Largest U.S. Ground-Source Geothermal System

Ball State University has completed its campus-wide ground-source geothermal system, the nation's largest geothermal heating and cooling system, DOE announced on March 20. DOE played a part in the project by providing a $5 million grant through the American Recovery and Reinvestment Act. The Indiana-based univserity anticipates saving $2 million annually in operating costs and cutting its carbon footprint by nearly 50% with the project.
Launched in 2009, Ball State's geothermal system replaces four aging coal-fired boilers to provide renewable power that will heat and cool 47 university buildings, comprising 5.5 million square feet on the 660-acre campus. To provide heating, geothermal heat pumps use a fluid to transfer heat from the Earth to buildings. For cooling, the pumps remove heat from buildings and transfer it back into the Earth. See the DOE Progress Alert and the Buildings Technologies Program website.

DOE Backs Four New Home Energy Professional Certifications

The Building Performance Institute, Inc. (BPI) will introduce in June four new home energy professional certifications for the U.S. weatherization and home performance workforce. The voluntary certificates offered by BPI are funded by DOE and cover the most common job classifications in the home energy upgrade industry: energy auditor, retrofit installer, crew leader, and quality control inspector. Scheduling will begin in May, and BPI will pilot written and field practical exams in June. The results will be used to set passing scores for the national exams. Candidates who take the initial exams and meet passing requirements will be among the first group of professionals to earn these certifications. BPI expects to roll the exams out nationally in the fall of 2012.
The new credentials will meet the International Organization for Standardization's (ISO) 17024 standard, which is the international benchmark for personnel certifications across all industries. Under ISO 17024, each new certification is developed and administered using international best practices, such as cross-disciplinary peer review and industry validation of technical materials. The new certifications will complement and build on BPI's existing credentials in the home performance career ladder, where increased knowledge and skills lead to advancement. These certifications will not replace or interfere with professional certifications in the building trades, but rather, they are intended to support the four most common whole-house home performance job roles. See the BPI press release and registration Web page.

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

  special thanks to U.S. Department of Energy | USA.gov

Lighting Up Georgia Convenience Stores

Convenience stores across Georgia are saving energy thanks to energy efficient lighting upgrades made possible by American Recovery and Reinvestment Act funds from DOE's State Energy Program and the Georgia Environmental Finance Authority. As a result of this partnership, the Georgia Association of Convenience Stores (GACS) implemented lighting efficiency improvements to participating convenience stores across the state, the first of which has already saved over $7,000 in the first year after the retrofits, along with over 54,000 kilowatt-hours (KWh), approximately the amount of energy used by five American homes over a year.
GACS received a grant to implement lighting efficiency improvements that have a quick payback period and to establish a revolving loan fund that will finance projects in the future. Participating stores completed the upgrades with no up-front costs, allowing storeowners to pay back into the fund the estimated savings that occur over the 18-month period following installation. Already, more than 30 convenience stores have improved their lighting, including interior lighting, cooler (or refrigerator) door lighting, and outdoor canopy lighting.
The retrofit fund promotes energy efficiency steps with quick payback periods. Initially, installers found that canopy lights were commonly used across the stores and were the most difficult to get a quick payback. A canopy light improvement was first tried at a convenience mart in Savannah. The solution for this location, which already contained 50 canopy lights (more than needed for the area), was to reduce the amount of lamps to 38—reducing electricity consumption by approximately two thirds. Read the complete story on DOE's Energy Blog.


Croatian Center of Renewable Energy Sources (CCRES)

ICCI 2012 - 18th International Energy & Environment Fair and Conference



Croatian Center of Renewable Energy Sources 
promotes
ICCI 2012 
18th International Energy & Environment Fair and Conference
(25 – 27 April 2012, Istanbul, Turkey).

Pre-register ( http://ticketing.expopromoter.com/en/964/order/837/ ) and get:
- Free entry ticket
- Free catalogue

ICCI Conference and Exhibition is successfully held since 1994 and is regularly attended by approximately 13.000 local and foreign participants.

The program of the event will cover the following topics
- General Outlook on the World Energy Sector
- Energy Sector in TURKEY
- General Outlook on the EU Energy Sector
- Energy and Environment
- New Horizons in Energy
- Energy and Environment Technologies
- Environment Technologies

More info about the event: http://expopromoter.com/en/1085/events/132492/
Pre-registration: http://ticketing.expopromoter.com/en/964/order/837/


Croatian Center of Renewable Energy Sources (CCRES)

Monday, April 2, 2012

CCRES 2012 Courses

  

CCRES 2012 Courses

Ethanol
The Ethanol Production CCRES Courses will examine the different types of engines and their combustion properties,.and the history and use of ethanol as a motor vehicle fuel.  CCRES students will learn about the chemistry of starch conversion and fermentation, feedstock collection and preparation.  The curriculum will include the conversion of certain feedstock materials into alcohol and how the thermochemical process of distillation of the alcohol transforms it into a high-quality, high octane motor fuel.  Safety considerations will also be covered.  The economic section will explore market opportunities, the current state of the industry, and small business opportunities for making and processing alcohol for transportation applications.


Biogas and Pyrolysis
The Biogas and Pyrolysis CCRES Courses will provide a history of gasification and pyrolysis, and an overview of photosynthesis, the carbon cycle and biomass energy. CCRES students will study the biochemistry of anerobic digestion, pyrolysis, gasification and the qualities of methane.  Safety issues are also included in the curriculum. The varieties of biogas applications will be explored as well as common types of biogas plants.  The mechanics of gasification include how a system is designed and built, how gas cleanup is handled and how to select the appropriate feedstock.  The economics section will explore market opportunities and issues of scale.


Biodiesel
The Biodiesel Production CCRES Courses will examine the different types of engines and their combustion properties. It will explore the fascinating history and pros and cons of using biodiesel.  CCRES students will learn about the chemistry of the biodiesel production process, including titration, transesterification and the importance of fuel standard and  safety considerations.  Also covered will be proper feedstock collection and preparation, and operation of the production system.  Market opportunities and economic analyses are included in the curriculum as well as the importance of biodiesel, tax credits and effect of scale.

Algae
The Algae Production CCRES Courses will begin with an overview of photosynthesis and the carbon cycle, the taxonomy of algae and the basics of cell biology.  Safety in the lab and the process of experimental methodology are also included in the curriculum. CCRES students will learn about algae growth factors such as temperature, light, CO2 and nutrients.  The different kinds of photobioreactor designs will be explored, including closed vs. open systems.  CCRES students will learn about the importance of cultivation protocols, and when to feed, harvest and how to process the algae.  Analytics will be covered as well which includes the use of the microscope and learning about the basic algae handling and testing procedures such as dilution, cell counting and dry weight measurment.  The various uses of algae will be examined such as its role in the nutraceutical, food, cosmetic and animal feed industries and as a replacement for petroleum as a transportation fuel.

Croatian Center of Renewable Energy Sources (CCRES)