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Clean Energy Partnership shortlisted for 2010 Clean Tech Media Award

Berlin, 23 Jul 2010. The Clean Energy Partnership (CEP) is a nominee for the Clean Tech Media Award 2010 in the Mobility category. This is the third time the Clean Tech Media Award jury has selected pioneers of environmental technology, of whom the best will receive an award on September 16th, 2010.

The CEP is one of 15 candidates shortlisted from a total of 63 applicants for the Clean Tech Media Award. This year’s prizes will be awarded in the following categories: Energy, Communication, Mobility, Lifestyle and Young Scientist. The CEP is up against two others in the Mobility category. An independent jury will decide who wins on 16 September.

The CEP was founded in 2002 with the aim of demonstrating hydrogen’s suitability for daily use as a fuel in vehicles and to test the infrastructure for refuelling the vehicles. Berliner Verkehrsbetriebe BVG, BMW, Daimler, Ford, GM/Opel, Hamburger Hochbahn, Linde, Shell, Statoil, Total, Toyota, Vattenfall Europe and Volkswagen, as well as technology, oil, energy and public transport companies, and the majority of German car manufacturers are participating in the ground-breaking project for the future. Since 2008, the CEP has also received funding from Germany’s National Hydrogen and Fuel Cell Technology Innovation Programme (NIP).

The partnership has now covered a distance of 837,000 km using hydrogen – nearly 21 times around the world. In the field of hydrogen technology, the CEP is the biggest demonstration project in Europe. The Clean Tech Media Award will be presented at a gala evening at Tempelhof Airport where around 1,000 guests from politics, business, science, culture and the media are expected.

 

 

July 23, 2010 - 12:54 PM No Comments

Nanotechnology coatings produce 20 times more electricity from sewage

 

CORVALLIS, Ore. – Engineers at Oregon State University have made a significant advance toward producing electricity from sewage, by the use of new coatings on the anodes of microbial electrochemical cells that increased the electricity production about 20 times.

The findings, just published online in Biosensors and Bioelectronics, a professional journal, bring the researchers one step closer to technology that could clean biowaste at the same time it produces useful levels of electricity – a promising new innovation in wastewater treatment and renewable energy.

Engineers found that by coating graphite anodes with a nanoparticle layer of gold, the production of electricity increased 20 times. Coatings with palladium produced an increase, but not nearly as much. And the researchers believe nanoparticle coatings of iron – which would be a lot cheaper than gold – could produce electricity increases similar to that of gold, for at least some types of bacteria.

“This is an important step toward our goal,” said Frank Chaplen, an associate professor of biological and ecological engineering. “We still need some improvements in design of the cathode chamber, and a better understanding of the interaction between different microbial species. But the new approach is clearly producing more electricity.”

In this technology, bacteria from biowaste such as sewage are placed in an anode chamber, where they form a biofilm, consume nutrients and grow, in the process releasing electrons. In this context, the sewage is literally the fuel for electricity production.

In related technology, a similar approach may be able to produce hydrogen gas instead of electricity, with the potential to be used in hydrogen fuel cells that may power the automobiles of the future. In either case, the treatment of wastewater could be changed from an energy-consuming technology into one that produces usable energy.

Researchers in the OSU College of Engineering and College of Agricultural Sciences, including Hong Liu, an assistant professor of biological and ecological engineering, are national leaders in development of this technology, which could significantly reduce the cost of wastewater treatment in the United States. It might also find applications in rural areas or developing nations, where the lack of an adequate power supply makes wastewater treatment impractical. It may be possible to create sewage treatment plants that are completely self-sufficient in terms of energy usage.

The technology already works on a laboratory basis, researchers say, but advances are necessary to lower its cost, improve efficiency and electrical output, and identify the lowest cost materials that can be used.

This research has been supported by the National Science Foundation and the Oregon Nanoscience and Microtechnologies Institute.

“Recent advances in nanofabrication provide a unique opportunity to develop efficient electrode materials due to the remarkable structural, electrical and chemical properties of nanomaterials,” the researchers wrote in their report. “This study demonstrated that nano-decoration can greatly enhance the performance of microbial anodes.”

About Oregon State University: OSU is one of only two U.S. universities designated a land-, sea-, space- and sun-grant institution. OSU is also Oregon’s only university designated in the Carnegie Foundation’s top tier for research institutions, garnering more than 60 percent of the total federal and private research funding in the Oregon University System. Its enrollment of nearly 22,000 students come from all 50 states and more than 90 nations. OSU programs touch every county within Oregon, and its faculty teach and conduct research on issues of national and global importance.

 

July 23, 2010 - 8:41 AM No Comments

Aussie fuel cells go great guns in Germany

 

An Australian energy company treated like a freaky science project at home has won a German government award for the most innovative company to invest in the state of North Rhine-Westphalia this year.

At its new production facility in Heinsberg, Germany, the company, Ceramic Fuel Cells, was producing “a key technology of the future”, said Petra Wassner, managing director of NRW.INVEST, the state’s economic development agency.

The big news is Ceramic’s BlueGen fuel cell device.

Roughly the size of a dishwasher, the device uses solid oxide fuel cell technology to convert natural gas into electricity and heat.

It generally produces more than enough electricity to power the average household — unless it is summer and you’re constantly running the air-conditioner — and enough heat to produce a tank of hot water daily.

The Victorian-based company was praised for investing 9.5 million euros (AU$14.16 million) in the facility, creating 80 new jobs and contributing “to a more efficient and cleaner energy supply in North Rhine-Westphalia”, Wassner told the award ceremony in Dusseldorf earlier this week.

But Ceramic Fuel hasn’t attracted nearly as much excitement in Australia, forcing the company to go global to survive.

“We are really big news here,” Ceramic chief executive Brendan Dow told AAP from Germany.

“[In Australia] we are treated like a science project.

“It’s really quite frustrating.”

In Germany, utility companies supply the device free of charge to households, who then pay for the natural gas they use.

Dow likens the arrangement to a mobile phone contract, where the consumer receives a free hand set and pays for their calls.

“BlueGen is an enabler of the utilities to be able to bill you for heat and power,” he said.

The household can then make back some money by selling any excess power to the grid.

If widely implemented, the system could save governments cash as well, reducing the need for billions of dollars in infrastructure.

That in turn would mean cheaper electricity for consumers, Dow said.

“About two-thirds of your electricity bill is actually due to transmission and distribution costs…[the] cost to the government of actually putting in poles and wires and enough infrastructure to deliver the power from the central power station.”

The other benefit of generating power from your own home is efficiency.

When electricity is generated in central power stations, the power and heat are lost on the way to your home.

Generating electricity at home, means the power and heat are delivered directly, rather than travelling through wires.

And then there’s the environmental benefit. All this cheap and efficient electricity is being produced with less carbon emissions.

If all of Australia’s electricity was produced via BlueGen, Australia would have the world’s lowest carbon emissions, rather than being the world’s worst emitter per unit of electricity, Dow said.

“The current emissions from the Australian grid is a little under one tonne of CO2 for every megawatt hour that’s produced,” he said.

“Our unit produces about 340kg or about one third of the emissions of the current grid.”

Dow says the other strength of BlueGen is reliability, unlike solar or wind power which are subject to uncontrollable factors.

“BlueGen operates all the time, day and night, regardless of wind or wave or sun conditions,” he said.

“Renewables are useful, but they can’t be the only solution.”

A report released last month by the CSIRO, commissioned by Ceramic Fuel Cells, found BlueGen produces “fewer greenhouse emissions than the use of current grid electricity in Victoria and NSW”.

Unlike solar and wind power, BlueGen runs on natural gas, which isn’t renewable, and that’s why the Federal Government hasn’t snapped it up as an answer to climate change.

The answer, according to John Bell from the Queensland University of Technology’s Faculty of Built Environment and Engineering, is both renewables and fuel cell technology.

“Fuel cells are a terrific source of energy which is much more efficient in terms of electricity production for the amount of carbon dioxide produced,” Professor Bell said.

The technology is great, but there are two main problems, he said.

“It still does produce CO2 [carbon dioxide] emissions, so it’s not going to get us all the way toward our emissions reduction target, and the second issue is it still uses natural gas.

“There is a finite supply of natural gas and it is much less than coal.

“[Fuel cell technology] doesn’t necessarily address the overall long-term energy supply issue.”

But according to Dow, it’s still early days for BlueGen technology, and in the future it will be run on renewable fuels.

“The technology will run on ethanol, it will run on biodiesel,” he said.

In Australia, utility companies are slowly testing the water when it comes to BlueGen.

Energy Australia has had the device installed in its showcase sustainability home in Newington, Sydney, while the Victorian Government and Origin Energy have installed the devices in showcase homes in Melbourne.

These are baby steps compared to the leaps being made in Europe, which is why Ceramic Fuels is operating in Germany.

“Energy prices here [in Germany] reflect the real cost of generating electricity … and the government is supportive so they’ve put in place a feed-in tariff,” Dow said.

The units are available in Australia but will be expensive to purchase.

Utility companies are also not obliged to purchase excess electricity, although the Victorian Government is looking into including the device in its feed-in tariff scheme.

“I’m frustrated as an Aussie that we don’t have more success in Australia,” Dow said.

“Our smallest utility partner here in Germany is bigger than AGL, bigger than Origin.

“The big guys are spending money.”

July 23, 2010 - 8:34 AM No Comments

School of Mines may ease soldiers’ workloads with fuel cells

 

By Tom McGhee
The Denver Post

American soldiers in the field rely on laptop computers, night-vision glasses, satellite phones and other battery-operated technology, but not without paying a price.

Batteries add more than 25 pounds to the loads they carry, said Andrew Herring, an associate professor of chemical engineering at the Colorado School of Mines.

The school will work on technology to lower the cost of fuel cells to replace those batteries, thanks to a Department of Defense grant announced this week.

“This is a massive deal from a cost point of view and from the point of view of the poor soldier carrying the batteries,” Herring said.

Mines, one of four schools cooperating in the research, will receive $650,000 a year for five years from the total $7.5 million grant. Researchers from the University of Massachusetts, Amherst College, the University of California at Riverside and the University of Chicago also are involved.

Fuel cells combine hydrogen and oxygen to make electricity. If the two elements aren’t separated, they burn.

In the hydrogen/oxygen fuel cell, a dividing membrane must conduct protons while acting as an electrical conductor and efficient barrier to the gases on either side, Herring wrote in a paper.

Acid-based separators now in use work well but rely on platinum and other costly metals to act as catalysts, Herring said.

With Mines leading the effort, the universities will research alkali-based films to act as separators utilizing nickel, copper or other metals.

“It is cheaper, and the catalyst works better,” Herring said. “The issue is that no one has figured out how to make a decent membrane that we can afford to give to every soldier.”

The Department of Defense grant is part of $227 million in grants to 70 schools nationwide participating in basic research.

Mines will also receive money for three other projects — research into preventing degradation of naval fuels; improvements to military lasers; and the use of electromagnetic radiation to identify land mines and explosive devices — but will not lead them.

July 23, 2010 - 7:31 AM No Comments