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Flint Company Demos Fuel Cells On Military Airplane Tug

Global Energy Innovations of Flint said it had secured a contract to provide its GEI-X5 High Temperature PEM fuel cell power system for deployment within a military hybrid tow tractor vehicle.

The two year demonstration project will highlight the benefits of the GEI fuel cell technology for extending the operating tow tractor range and provide real-time operating data as GEI scales-up commercialization for commercial transport, residential, military, and telecommunications applications.

This real-world application will accelerate GEI’s position as the industry leader for compact high temperature PEM fuel cell electric power generators of between two and 20 kilowatts, capable of using a variety of fuels, JP8, JP10, natutral gas, propane, bio-methane, methanol, and synthetic fuels.

Global Energy Innovations is a Kettering University spinoff and manufactures next generation fuel-cell power systems. GEI has solved the hydrogen fuel storage requirement by developing high temperature PEM fuel cell reforming systems that cost effectively extracts hydrogen from locally available infrastructure fuels.

For more information, contact (586) 668-6613 or visit www.geifuelcells.com

May 31, 2010 - 8:00 AM No Comments

A novel designer surface catalyst for oxidations

catalyst

Scientists in China have developed a new surface-based catalyst that can selectively oxidise carbon monoxide to carbon dioxide in the presence of hydrogen – making it potentially useful for hydrogen fuel cells, where carbon monoxide can poison the platinum electrodes that are used in the cell.

More significantly, however, is the fact that the researchers designed the catalyst from theoretical predictions – something that is notoriously tricky to do with surface-based catalytic systems. The catalyst is made by creating ‘nanoislands’ of ferrous oxide, around 3-5nm across, on a platinum surface by evaporating iron on to the surface in the presence of oxygen. Ordinarily the iron would oxidise to its ferric state. However, powerful adhesion forces between the ferrous oxide and the platinum surface result in a phenomenon called ‘interface confinement’, where the FeO is stabilised.

In this state it is coordinatively unsaturated – it has spare bonding capacity. The researchers demonstrated that the edges of the islands – the shoreline as it were – contain coordinatively unsaturated ferrous (CUF) sites that are able to dissociate oxygen molecules into atomic oxygen. Carbon monoxide adsorbs to the surface of the platinum and is oxidised at these CUF sites.

The team showed that the system could oxidise carbon monoxide in the presence of a stream of hydrogen – something that could be useful for preventing the poisoning of platinum in hydrogen fuel cells.

‘Using this simple concept and strategy the coordinatively unsaturated metal sites could be easily fabricated on solid surfaces and used in many heterogeneous reactions,’ says team member Xinhe Bao, of the Dalian Institute of Chemical Physics.

Renald Schaub, a surface scientist at the University of St Andrews in the UK, notes that most surface catalytic systems have been developed with little fundamental understanding of the underlying phenomena. ‘Surface science is all about trying to relate the structure of a catalyst with its reactivity, selectivity and stability. This work has achieved this brilliantly. It shows that you can develop a new catalyst based on rational and intelligent design.’

Simon Hadlington

May 31, 2010 - 7:08 AM No Comments

Cheshire company pairs up with European firm for fuel development

A company based in Cheshire has announced that it is to join forces with European chemicals company INEOS ChlorVinyls in order to develop commercially viable hydrogen fuel cells.

AFC Energy said it is to work with the firm in Runcorn in order to develop electricity generation methods that can be created from by-products that already exist as a way of offsetting electricity from fossil fuels.

It is hoped that energy from surplus hydrogen left over from making chlorine can be used in fuel cells.

Ian Balchin, AFC Energy’s managing director, commented that the research should be successful, since the company has already shown that a fuel cell system can be made from hydrogen.

“We look forward to working closely with INEOS ChlorVinyls,” he added.

AFC Energy claims that its fuel cells are two orders of magnitude cheaper than its competitors’ and that they are low maintenance, serviceable and easy to get new parts for.

May 29, 2010 - 1:10 PM No Comments

Anheuser-Busch Reject $1.1 mil Fuel Cell Grant

The Anheuser-Busch brewery in Fort Collins has rejected a $1.1 million experimental energy grant from the U.S. Department of Energy to replace lead-acid batteries on its fleet of forklifts with cleaner fuel cell packs.

The grant, announced a year ago, was part of $41.9 million in federal stimulus funds awarded to 13 companies to develop and deploy fuel cells.

Implementing the technology in A-B’s forklifts would have provided a “real-world” look at how fuel cells perform with daily use.

Grant recipients were expected to match the DOE funds, and A-B indicated the additional costs were too high.

“A thorough project analysis revealed additional costs, and we decided to dedicate our resources to other clean- energy projects that have better, more efficient use in our business,” Kevin Fahrenkrog, A-B’s Fort Collins manager, wrote in an e-mail.

The company did not respond to further questions about the grant.

Fahrenkrog cited A-B’s other clean-energy projects, including installation of a molecular sieve, which increases ethanol, a byproduct of the brewing process, to a higher proof, allowing it to be directly blendable with E85 flex fuel, selling fuel crops grown at its Nutri-Turf farm to a local ethanol plant and decreasing water use by almost 32 percent.

Fahrenkrog said the efforts have contributed to a 27 percent decline in fuel use in the past five years.

Department of Energy spokeswoman Tiffany Edwards said in a voicemail message that during “negotiations” with A-B, the company decided not to go forward with the grant and referred all other questions to A-B.

Fuel cells promise to provide green energy storage for everything from electronic gadgets to cars, but getting the right chemistry and keeping the manufacturing costs low are tricky to do, the DOE said in announcing the grants in April 2009.

Fuel cell companies have found some success deploying their products for back-up power systems and industrial equipment such as forklifts, the DOE said. So the government is using the $41.9 million to support those

May 29, 2010 - 1:08 PM No Comments

ITM Power to Develop Small-scale Hydrogen Fuelling Appliance (SHFA)

ITM Power plc, the energy storage and clean fuel company, is pleased to announce that it will be undertaking a detailed engineering design study for The NextEnergy Centre, a US business accelerator for alternative and renewable energy, for the development of an alpha prototype Small-scale Hydrogen Fuelling Appliance (SHFA) for 70MPa (700 bar) home refuelling, with consideration of 35MPa (350 bar).

The SHFA will be suitable for the next generation of hydrogen-powered vehicles currently being developed by major automotive OEMs. If successful it may provide a substantial part of the US public hydrogen fuelling network for commuter vehicles. In addition it will also facilitate the introduction of hydrogen vehicles in some commercial applications, such as hydrogen-powered fork lift-trucks for materials handling.

SHFA Design Study

ITM has been awarded a sub-contract from NextEnergy of US$81,000 over 10 months to design an alpha prototype Small-scale Hydrogen Fuelling Appliance (SHFA) for 70MPa (700 bar) refuelling. This will be capable of generating and delivering up to 5kg H2 per week in one or more refuelling events.

NextEnergy have received approval from the U.S. Department of Energy to utilize Congressional Appropriation funding to develop a 70 MPa Small-scale Hydrogen Fueling Appliance (SHFA). A Steering Committee is providing technical oversight for this 70 MPa SHFA project. The Steering Committee consists of NextEnergy, combined with the following OEMs: General Motors, Ford Motor Company, Chrysler, Daimler, AG, Toyota, Nissan, Hyundai-Kia Motors and Volkswagen. In addition the committee includes the California South Coast Air Quality Management District (AQMD), and the US Army Tank-Automotive Research, Development and Engineering Center (TARDEC).

http://www.nextenergy.org/services/collaborativeprograms/70mpahydrogen.aspx

ITM will use its own IPR in providing the design study for Next Energy and will share any incremental IP generated within the contract with NextEnergy. ITM’s existing IPR remains protected. The completion of the sub-contract may result in a joint venture with NextEnergy taking the design into prototype production and manufacture or licensing agreements.

Dr. Graham Cooley, CEO of ITM Power plc commented; “This agreement with Next Energy is an excellent opportunity for ITM to consolidate its considerable engineering expertise and experience in home refuelling whilst at the same time gaining exposure to the worlds largest automotive OEM’s. The Next Energy project will put ITM on the world automotive stage.”

Chuck Moeser, CHMM, Senior Consultant for Contract Development at Next Energy commented; “We are delighted to be working with ITM Power plc a pioneer in the field of home refuelling. The de-carbonization of the automotive sector is a significant focus for the US.”

May 29, 2010 - 1:03 PM No Comments

360 State Street gets ‘green’ fuel cell

By: Keith Kountz

New Haven, Conn. (WTNH) – A ‘green’ fuel cell arrived at the 360 State Street tower construction project in New Haven Thursday.

The new fuel cell is 400 kilowatts features ‘green technology’ that will provide almost 100 percent of the building’s energy needs. It marks the first time a fuel cell is being used in a residential building of this size.

“Fuel cells provide the energy trifecta; distribute generation, combined heat and power and homegrown innovation,” said Bruce Becker one of the architects for the project.

The $3 million fuel cell was built by the United Technology Corporation and it will significantly reduce 360 State’s so called ‘carbon footprint.’ “Just to appreciate this, it’s sort of comparable to when we went from main frame computers to our PC’s on our desktop,” said Lisa Doni of the Connecticut Clean Energy Fund.

To get the project off the ground, 360 State received a grant from the Connecticut Clean Energy Fund among other funding sources. “This project incorporates a lot of ‘green technology’ compared to the grid,” said Mike Brown of UTC Power. “This insulation would be equivalent to taking one hundred cars off the road or planting 178 acres of trees.”

The architect of the building said Friday that the tragic oil spill in the Gulf is further proof of the importance of developing ‘Green’ power sources. If all goes as planned, the first 100 residential units at ‘360 state’ will be ready for occupancy by August.

May 29, 2010 - 8:26 AM No Comments

Rapid200Fc hydrogen fuel cell powered aircraft takes its maiden flight

mdnflg1_full cr200_1_full Reggio Emilia, ItalyAt 07:14 UTC on 20th May 2010, European Commission research project Rapid200Fc, hydrogen fuel cell powered aircraft, took its maiden flight in Reggio Emilia. The first aero-mechanical flight was followed by a 11 minutes flight envelope investigation flight. The hybrid power system, completely electrical and composed by a 20kW PEM fuel cell and a 20 kW Li-Po battery, was successfully tested during the experimental flight. Level flight at 700ft and 130 km/h was attained by mean of partial fuel cell power setting. Positive handling qualities and satysfactory engine performances let the test team to consider this successful early flight as a further step in introduction of clean energy in aeronautics. Official demonstration flight will be performed next week at Reggio Emilia airport.

May 28, 2010 - 6:00 AM No Comments

Mercedes-Benz of Long Beach Announces Significant Resources Investment In Hydrogen Electric Technology

Signal Hill, Calif. – Mercedes-Benz plans to complement its current portfolio of BlueTEC clean diesel SUVs and hybrid offerings with hydrogen electric vehicles at the end of 2010 to start introducing customers to the technology and gain real-world experience.

With new greenhouse gas emissions standard signed into law, the automotive industry is poised to undergo more change in the next 10 years than it has in the previous half century, said Mercedes-Benz USA executive Sascha Simon. Simon explained that many drivers need and demand larger vehicles that can travel long distances. Commercial fleets especially will not be able to rely on batteries alone.

Mercedes-Benz is investing significant resources in hydrogen electric technology, which has the potential to significantly reduce dependence on fossil fuels without constraining customer expectations.

According to Simon, infrastructure challenges are preventing the technology from being adopted on a large scale. He suggested that this new generation of buyers would play a large role in shaping the face of transportation going forward.

“The road to zero emissions is not necessarily as long as most people think. The speed of progress depends on government climate change programs and carbon fuel supplies, but just as important is the customers’ willingness to adopt and embrace alternative fuel vehicles” Simon said.

Mercedes-Benz offers drivers the most diverse line-up in the luxury segment with 12 model lines ranging from the sporty C-Class to the flagship S-Class sedans and CL coupes.

Mercedes-Benz of Long Beach, located at 2300 E. Spring Street in Signal Hill, Calif., strives to offer the highest levels of service in all departments with competitive pricing. With a knowledgeable sales staff, factory-trained service and parts experts and a wide selection of new and Certified Pre-Owned vehicles, Mercedes-Benz of Long Beach is committed to providing Southern California residents with a true Mercedes experience.

For more information about current offers, please call 562-988-8300 or visit mbzlongbeach.com.

May 28, 2010 - 5:45 AM No Comments

Plug Power Restructuring to Focus on Commercial Activity in Material Handling Market

LATHAM, N.Y. – Plug Power Inc. (PLUG ) , a leader in providing clean, reliable energy solutions, today announced a corporate restructuring to focus and align the company on its GenDrive(TM) business. In keeping with its primary objective to become a profitable enterprise, Plug Power is streamlining its resources and its workforce to harness commercial traction in the material handling market.

In a move to optimize efficiency and growth potential in the $4 billion North American material handling market, Plug Power is consolidating all operations to its Latham, New York headquarters. In doing so, 117 positions will be eliminated in its Canada, India and U.S. facilities. As a result of the restructuring, the annual cash burn rate is expected to decrease by $12 to 15 million, providing necessary capital to help accelerate market adoption.

“As with many new and innovative technologies, product adoption rates vary from market to market,” said CEO Andy Marsh. “With our experience we’ve seen a much faster adoption of fuel cell power in the material handling space, and as a result, we are focusing resources to accelerate customer acquisition in this important market. This is the right move for the material handling business and the right move for Plug Power.”

As stated in Plug Power’s most recent earnings call, Plug Power is evaluating the GenSys business model and expects to communicate any changes to its prime power strategy by the end of the second quarter. “Absent external market dynamics, the GenSys technology platform is sound and the product and system capabilities are strong,” continued Marsh. “Interest from commercial partners is high as we continue to explore opportunities to capitalize the strength of this business.”

Plug Power expects to ship 1,100 GenDrive units in 2010. Customers receiving products include United Natural Foods, Sysco, Wegmans, Central Grocers and others.

Further details about the restructuring will be provided in an 8-K filing with the SEC.

May 28, 2010 - 5:36 AM No Comments

UTC to power New Haven high-rise

UTC Power in South Windsor is due to deliver Friday one of its fuel cells to power the 32-story luxury high-rise going up in downtown New Haven.

The 400-kilowatt fuel cell will supply electricity for the $180 million Pitkin Plaza tower and its 504 living units and retail-office space when it opens in August, officials said.

The project will be the first of its kind in the world to run on a fuel cell of that capacity, officials said.

Becker + Becker is the architect-developer of the tower that is certified LEED Platinum.

UTC Power is a division of United Technologies Corp. in Hartford.

May 27, 2010 - 8:00 AM No Comments

UPS Systems’ Seminar Creates ‘Exciting Times’ for Fuel Cell Industry

Hungerford, Berkshire, United Kingdom– UPS Systems has announced that 67% of delegates have changed their opinion of fuel cells because of its seminar – Fuel cells…real world applications for business – and warn that there are very exciting times ahead for the UK fuel cell industry.

UPS Systems seminar was a unique event providing organisations with an insight into the commercial applications for fuel cell technology, featuring case studies to highlight the business benefits of fuel cells.

Where other fuel cell events have in the past focused on technical and academic discussions about technology, UPS Systems’ event brought together some of the industry’s leading manufacturers to discuss the practical application of the latest products. Throughout the course of the day, delegates heard presentations from UPS Systems plc, SFC, Hydrogenics, BOC, ACAL Energy and FCT Consulting.

There were also displays and demonstrations of the latest commercial fuel cell products, including the Hymera from BOC, EFOY Pro 2200 from SFC, 600W generator from IRD, HyPM from Hydrogenics and REMO from UPS Systems.

“The event was a great success with over 70 delegates attending from all around the UK,” said UPS Systems’ Marketing Manager, Roger Foggitt. “The feedback we received from the delegates was really positive – 66% rated the seminar as ‘excellent’ with the remainder rating it as ‘good’. Furthermore, 67% of delegates said the seminar had changed their opinion of fuel cells – a huge achievement and testament to the hard work from our speakers on the day.”

Bob Longman, V P Engineering at ACAL Energy, and one of the speakers at the seminar, said: “It is to UPS Systems’ credit that they are evangelising fuel cell technology on behalf of the industry in the UK. Our own technology is not ready for mass-market adoption yet but there are certainly a growing number of markets that can benefit from the products on show at the event.”

Another speaker at the seminar, Dr Jonathan Butler, Senior Market Analyst at FCT Consulting commented: “The fact that there is so much interest in the seminar is testament to the fact that there is a genuine market opportunity for fuel cell technology in the UK. And we have some genuine pockets of industrial, commercial and R&D expertise in the UK, which are characterised by some of the companies presenting at UPS Systems’ event.”

UPS Systems Managing Director, Tom Sperrey commented: “There has been a definite shift in the UK fuel cell industry. Last year we were educating the market about what fuel cells are and the benefits they have to offer organisations. This year it’s clear that people are ready to buy and actively looking for the best solution to meet their needs. Since the seminar, we have already taken new orders, and received several enquiries from companies wishing to adopt fuel cell technology. I think 2010 could turn out to be a momentous year for fuel cells with very exciting times ahead for the industry.”

UPS Systems plc (upssystems.co.uk) is the UK’s largest independent supplier of standby power solutions. Through its independent position, allied to close working relationships with the world’s leading manufacturers, the company is uniquely able to offer impartial technical advice on the widest range of standby power solutions. An authority on fuel cell technology, UPS Systems implemented the UK’s first two hydrogen fuel cells providing AC standby power, and is currently working on projects where the technology will be used for the supply of backup or prime power to utilities, telecommunications, remote telemetry, portable signage and renewable energy applications.

ACAL Energy is a developer of a new fuel cell technology that will enable low cost and highly reliable fuel cell systems for a wide variety of applications. The company was founded in August 2004 by FlowCath® inventor Dr Andrew Creeth and is headquartered in Runcorn, UK.

Fuel cells are a highly efficient and clean energy production technology capable of replacing combustion engines in applications including remote and distributed power and residential cogeneration, as well as automotive and mobile power applications. FlowCath® replaces the expensive precious metal catalyst found in conventional fuel cells with a proprietary low cost liquid catalyst. This not only reduces the cost of the fuel cell, but also provides significant durability and reliability benefits through system simplification and the elimination of the most common failure mechanisms found in standard fuel cells.

FCT Consulting is a dedicated consulting company with a unique positioning covering the global fuel cell and hydrogen industry. FCT Consulting was formed to help companies, governments, and NGOs navigate their way around or over obstacles by providing high quality, independent, and rigorous information on a variety of issues currently facing the fuel cell industry.

May 27, 2010 - 6:50 AM No Comments

K. R. Sridhar: Bloom Energy’s Fuel-Cell Guru

‘This Is Brand New’

The CEO of Bloom Energy on a new way of powering the planet.

By Fareed Zakaria | NEWSWEEK

NWK Caption: KR Sridhar, co-founder and CEO of Silicon Valley  startup Bloom Energy, holds up a stack of fuel cells at a news  conference at eBay offices in San Jose, Calif., Wednesday, Feb. 24,  2010. The company's first product is a huge box of fuel cells that it  hopes will allow homes and businesses to generate their own electricity.  (AP Photo/Paul Sakuma) -- IPTC Caption: KR Sridhar, co-founder and CEO  of Silicon Valley startup Bloom Energy, holds up a stack of fuel cells  at a news conference at eBay offices in San Jose, Calif., Wednesday,  Feb. 24, 2010. The company's first product is a huge box of fuel cells  that it hopes will allow homes and businesses to generate their own  electricity. (AP Photo/Paul Sakuma)

Paul Sakuma / AP

From the magazine issue dated May 3, 2010

K. R. Sridhar spent years building technologies for NASA that could sustain life on Mars. Now, as CEO of Bloom Energy, he’s trying to perfect a device that could improve life on Earth. His company builds fuel cells—small power plants, essentially, that can power anything from a single home to a whole city. NEWSWEEK International editor Fareed Zakaria spoke with him about these “Bloom boxes,” which convert gas, biomass, and other fuels into electricity. Excerpts:

Tell me about your transition from working on the Mars mission to this.

It became obvious to me that on Mars, if you give me a few molecules of oxygen, I can create everything else human beings need: fuel, heat, electricity, plastic, food, water. So I started looking for someplace where I can make an impact in a realistic time frame, as opposed to something far in the future. It dawned on me that if we don’t solve the energy issue, we will have significant problems.

Why is Bloom so important in terms of the future of energy?

Look at what distributive computing did to computing. We wouldn’t have millions of software engineers if computing relied purely on mainframe computers hooked up to dumb terminals. Why? Too expensive. Access is limited to the privileged. Distributive power is real democracy.

So this is really a big bet on the power of decentralization?

Absolutely. If you go to Google or Microsoft or Amazon, they all have huge data centers. Inside, there are actually small servers ganged up in groups of hundreds and thousands. Our fuel cells are exactly the same thing. I can cluster our energy servers and build an energy farm. Or I can take the same technology to a little village and create a microgrid.

But you still need to get the fuel from a centralized source.

That is true today. But the same technology I am using today to turn chemical energy, like natural gas, into electrons, can be used with an intermittent source, like solar or wind.

But don’t you need to then store the energy somewhere?

Think of it as being able to spin in two directions. In one direction, I take the solar energy during the day, and I break water up into hydrogen and oxygen. The hydrogen is stored locally in very low-pressure bladders. And at night, when the sun stops shining, you take this hydrogen, run it through the fuel cells, and produce electricity.

How can you ever be more efficient than a big power plant?

The question to ask is, in a traditional power plant, is there a Moore’s law kind of learning that can happen? The answer is no. There are 100 years of history associated with that [technology]. Whereas we have shown in the last five years that, every year, we are able to improve upon the physics and the chemistry to get more value out of the same material that we put in.

And because you can distribute fuel cells everywhere, you don’t lose much due to long transmission lines?

That is absolutely true. Also, in a fuel cell you are going from chemical energy directly to electrical energy, with no in-between steps. In the other forms of electricity generation, whether it is coal or gas, you burn the fuel first. And the laws of thermodynamics say that if you convert energy from one form to another, you will have losses.

Your capital cost is high, something like $7 or $8 per watt.

Right now we are only economical with subsidies.

Why do you think this will be viable without subsidies in the future?

If I build a large automobile plant, and I have just put out the 30th car, do you expect me to be profitable? Ask anybody in manufacturing: for every doubling in volume, you will see a 10 to 15 percent reduction in cost.

How long before you scale to the point where you can have a transformative effect?

Within this decade we’ll be a significant player in this field. That’s a very short time frame, if you think about the market and how static it has been. We are not just creating a company—we are creating an ecosystem. There is no supply chain right now. This is brand new.

What do you think the world of energy will look like in 10 years?

Energy is the capacity to do work. We’ve got 2 billion starving people on this planet, and they want to climb the economic ladder. Without creating significantly more energy than we consume today, we’ll face the threat of social and political unrest. But I’m an optimist; I see this as the biggest opportunity.

Find this article at http://services.newsweek.com/id/236860

May 27, 2010 - 6:28 AM No Comments

Neah Power Forms Industrial Partnership With the Genetically Engineered Materials Science and Engineering Center

BOTHELL, Wash. — Neah Power Systems, Inc., (OTCBB:NPWZ), , the Company developing fuel cell based renewable energy solutions, announced today that it has formed an industrial partnership with GEMSEC (Genetically Engineered Materials Science and Engineering Center), located at the University of Washington in Seattle. GEMSEC constitutes an interdisciplinary team of scientists and engineers who work together to marry science and technology of the two fields, biology and materials sciences and engineering, at the fundamental level. The center focuses on research to adapt and develop molecular biology and genetics protocols to engineer peptides and proteins as a utility to synthesize, assemble, and manufacture functional hierarchical structures for use in various renewable energy and nano-technologies and medicine.

“We are pleased to be involved with the innovative nanomaterials research and development sought at GEMSEC. The expertise, facilities, and caliber of research performed here will, we expect, lead to development of new technologies, and significant cost-reduction and research breakthroughs made available to Neah. We look forward to working on new products together,” commented Dr. Tsali Cross, Vice President of Engineering at Neah Power. Dr. Mehmet Sarikaya, GEMSEC Director, Professor, Materials Science and Engineering at the University of Washington further noted, “The collaborative research with GEMSEC can lead to biology inspired and bio-enabled renewable energy solutions that build on the differentiated and patent protected technology of Neah Power Systems.”

More information regarding GEMSEC can be found at: http://depts.washington.edu/gemsec/index.html

About Neah Power

Neah Power Systems, Inc. (OTCBB:NPWZ) is renewable energy solutions, including direct current air conditioning, and long-lasting, efficient and safe power solutions for the military and for portable electronic devices. Neah uses a unique, patented, silicon-based design for its micro fuel cells that enable higher power densities, lower cost and compact form-factors. The company’s micro fuel cell system can run in aerobic and anaerobic modes.

Further company information can be found at www.neahpower.com.

May 26, 2010 - 12:10 PM No Comments

Opposites Attract and Inspire Electrocatalyst

U.S., China team convince platinum and gold particles to come together and form nanocatalysts

micrograph of catalyst
Gold particles (colored in blue) will surround themselves with even smaller platinum particles (colored in orange), creating a structure that could turn a common preservative into electricity in a fuel cell, a study by according to scientists at China’s Harbin Institute of Technology and Pacific Northwest National Laboratory.

Results: Tiny gold particles will surround themselves with even smaller platinum bits, creating a complex structure that could turn a common preservative, formic acid, into electricity in a fuel cell, according to scientists from China’s Harbin Institute of Technology(Offsite link) and the Pacific Northwest National Laboratory. The team used a novel electrostatic self-assembly method to create platinum-surrounded gold nanomaterial. This method relies on the attraction between positive and negative charges to inspire nanoparticles to form new structures on their own.

“To our knowledge, this is the first time that this method has been used to create such catalysts,” said Dr. Yuehe Lin, a chemist at PNNL and a co-corresponding author of the paper. This paper was named a Very Important Paper by Angewandte Chemie International Edition(Offsite link). Less than 5% of the journal’s manuscripts receive such a positive recommendation, and this was the only one in the current issue.

Why It Matters: Replacing today’s batteries in laptop computers and other portable devices with liquid fuel-powered fuel cells could ease consumer frustrations. The fuel cells would last 2 to 10 times as long as today’s batteries. Further, the laptop computer could be recharged instantly, because it relies on formic acid, not electricity. In addition, this kind of fuel cell can be used as a battery-electric vehicle range extender if assembled into a stack. But, such fuel cells must have efficient catalysts to create the needed power. This research provides fundamental insights into designing such catalysts.

Methods: Designing this catalyst began with two solutions. The first held tiny, positively charged platinum spheres, about 2.8 nanometers wide. The second solution held negatively charged gold particles, about twice as wide as the platinum. The scientists mixed an excess of the platinum solution with the gold solution. The particles formed into a flower-like structure, with the platinum in the center surrounded by gold petals. The self-assembly was driven by the attraction between the positive and negative particles and the repulsion between nanoparticles with same charge.

After creating the particles, the researchers examined them using x-ray diffraction, transmission electron microscopy, and energy-dispersive x-ray spectroscopy. These capabilities were all found at EMSL, Environmental Molecular Sciences Laboratory.

The team tested the catalytic efficiency of the platinum-surrounded-gold particles. They applied the particles to formic acid. The particles catalyzed the removal of the two hydrogen atoms, producing carbon dioxide and electrons to drive the fuel cells. The new catalyst generated 5.7 times the current density of platinum nanocatalysts alone, a significant improvement over today’s catalysts.

micrograph of catalyst Scientists mixed an excess of a solution containing positively charged platinum spheres with negatively charged gold particles. The particles formed into a flower-like structure, with the gold in the center surrounded by platinum. The self-assembly was driven by the attraction between the positive and negative particles and the repulsion between nanoparticles with same charge.

What’s Next: The scientists are studying how the atoms and electrons from the catalyst and formic acid interact to understand why this innovative catalyst is more active than they expected.

Acknowledgments: The work was funded by PNNL’s Laboratory Directed Research and Development program, the China Scholarship Council, and the Natural Science Foundation of China.

The team includes Sheng Zhang and Geping Yin of Harbin Institute of Technology in China and Yuyan Shao and Yuehe Lin of PNNL. Sheng Zhang and Yuyan Shao contributed equally to this research.  The work was done at PNNL and DOE’s EMSL, a national scientific user facility.

Reference: Zhang S, Y Shao, G Yin, and Y Lin. 2010. “Electrostatic Self-Assembly of a Pt-around-Au Nanocomposite with High Activity towards Formic Acid Oxidation.” Angewandte Chemie International Edition 49:2211-2214. DOI: 10.1002/anie.200906987.

May 26, 2010 - 8:01 AM No Comments

Ceramic Fuel Cells has begun generating low emission electricity from its BlueGen unit installed at Aurora

Ceramic Fuel Cells Limited (AIM/ASX: CFU) – a leading developer of high efficiency and low emission electricity generation units for homes and other buildings – has begun generating low emission electricity from its BlueGen unit installed at Aurora, in Epping North, Victoria, developed by VicUrban, the Victoria Government’s sustainable urban land development agency.

The BlueGen unit at Aurora was powered up on 29 April and is performing as expected:

  • Current electrical efficiency of 58%, compared to about 25% efficiency for coal-derived electricity.
  • Constant output of 1.5 kilowatts of electricity.
  • Cumulative power exported to the grid of 876 kilowatt hours of electricity – equivalent to approximately 12,500 kilowatt hours of electricity over the course of a year, which is about twice the amount used by the average home in Melbourne..
  • Cumulative carbon dioxide savings compared to the Victorian grid of 823 kilograms – equivalent to 12 tonnes over the course of a year.1 This is equal to 240,000 “black balloons”. These carbon savings would effectively make the average Victorian home ‘carbon neutral’: the average Victorian household produces around 10.7 tonnes (213,000 black balloons) of greenhouse gas emissions each year from energy used in t2
  • Creating enough heat for 200 litres of hot water each day.
  • Origin Energy is buying the power that BlueGen is exporting to the grid.

* NOTE. The unit is available for viewing on site. Please see bottom of announcement for details.

BlueGen units generate electricity in the home at more than double the efficiency of current Victorian coal-fired electricity generators, cutting energy bills and reducing carbon emissions by up to two-thirds.

About the size of a dishwasher, BlueGen uses fuel cell technology to convert natural gas into electricity. Over a year, each BlueGen can produce twice the electricity needed to power an average Victorian home – the excess power can be exported to the power grid. BlueGen also produces enough heat to meet the average home’s daily needs for hot water.

Ceramic Fuel Cells has achieved electrical efficiency of 60 percent, far higher than any other technology in the rapidly expanding global market for small scale power and heating generators. When heat is recovered from the electricity production process, total efficiency is up to 85 percent – more than twice as efficient as the average among current Australian power stations.

Ceramic Fuel Cells is continuing to build its order book for BlueGen units from major utilities and other foundation customers in Germany, the United Kingdom, Switzerland, The Netherlands, Japan and Australia.

The Victorian Government recently placed a conditional order for thirty BlueGen units to be installed in social housing units in Melbourne and regional Victoria.

Using the same fuel cell technology, Ceramic Fuel Cells is also developing fully integrated power and heating products with leading energy companies E.ON UK in the United Kingdom, GdF Suez in France and EWE in Germany.

May 26, 2010 - 6:50 AM No Comments

Vision Licenses Organic Liquid Hydrogen Carrier, Adds Fuel to Its Line of Hydrogen Solutions, Plans Nationwide Roll-Out

LOS ANGELES — Vision Industries Corp. (OTC Bulletin Board: VIIC), producers of the zero emission electric/hydrogen hybrid Tyrano™ truck, is pleased to announce that it has entered into an agreement with Asemblon Inc. of Redmond, WA, for an exclusive license to sell Hydrnol for fleet fueling. The focus will be on centralized or strategically located fuel centers for heavy duty, Class 8 commercial vehicles equipped with fuel cells as the primary power source, excluding hybrids and gas or diesel combustion engines, within the continental United States.

Vision believes that a national introduction of Hydrnol using existing service stations as detailed below would provide the first network facilitating coast-to-coast and border-to-border travel for fuel cell vehicles. Hydrnol might well be the game changer that allows for a commercially viable, nationwide hydrogen infrastructure roll-out, at one tenth the cost of compressed hydrogen.

Hydrnol is an organic chemical “carrier” for hydrogen transportation and storage. It is a simple, recyclable, rechargeable, organic molecule that carries hydrogen, which is released on demand through an onboard reactor. Hydrnol is liquid over a wide temperature range, and its safety is comparable to that of gasoline and diesel. It can be transported via pipelines and tanker trucks, it is stored at ambient temperature, and it is unpressurized. Hydrnol can provide hydrogen to both fuel cell cars and trucks at commercially viable prices, giving Hydrnol unparalleled worldwide potential.

Mr. Martin Schuermann, President and CEO of Vision explains, “Vision has built a very functional business model for local and regional delivery zero emission heavy duty big rig trucks with a duty cycle of up to 200 miles over an eight hour shift. To build a business model for line haul, coast-to-coast, zero emission big rig trucking — there are three major obstacles to overcome. Hydrnol is the solution to two of those obstacles.”

The first obstacle is getting a meaningful amount of hydrogen on board the truck. Current commercially viable technologies limit that amount to approximately 40 KG of compressed hydrogen, which effectively limits the range to a maximum of 400 miles in drayage applications. Hydrnol solves this problem by allowing Vision’s trucks to carry 110 KG of hydrogen in an easy to handle liquid format, thereby providing up to 1,100 miles in drayage application or a 650 mile range at highway speeds. The hydrogen is released from the Hydrnol by way of an on board reactor. The spent fuel is directed to an onboard spent fuel reservoir, where it can be pumped out, taken to a centralized plant, and reloaded with Hydrogen at a more effective cost.

The second obstacle for building a line haul, coast-to-coast network for zero emission big rig trucking is the current lack of hydrogen refueling infrastructure. According to Larry Burns of General Motors; “A network of 12,000 hydrogen stations in the United States would put 70% of the U.S. population within two miles of a fueling station. If the stations cost $2 million each (estimates for the cost of a station range from $1 million to $4 million) the network would cost about $24 billion.”

While that may be the case for an infrastructure rollout for fuel cell passenger vehicles, Vision looks at the big rig market from a different perspective. In 2006, the U.S. consumed 180.2 billion gallons of transportation fuels, of which 23.8 billion gallons (or 13.2%) were diesel consumed by combination highway trucks. There are approximately 1,200 diesel truck stops in the U.S., with Pilot Travel Center and Flying J established as the two largest truck stop chains, each utilizing approximately 300 stations to cover the U.S. from coast-to-coast and border-to-border.

Since Hydrnol is an easy-to-handle liquid, an infrastructure roll-out utilizing existing fueling equipment is very straightforward. Installing Hydrnol storage and dispensing infrastructure at an existing truck stop is estimated at $200,000 to $300,000 per station. Therefore, a 300 station, nationwide Hydrnol infrastructure rollout, accessing 13.2% of the U.S. transportation fuel marketplace can be completed for less than $100 million.

The third and last major obstacle for nationwide roll-out is the cost of fuel cells. Only a few years ago the cost for a fuel cell capable of sustaining a big rig at highway speeds for cross country driving exceeded $1,000,000. While limited commercialization has already brought that cost down to around $300,000, the projected upswing in volume and corresponding efficiencies in production are expected to bring that price down to around $20,000 at the time when Vision expects to begin its nationwide Hydrnol infrastructure commercial rollout.

Michael D. Ramage, Asemblon CEO & President added, “We view this agreement with Vision as the first step to improve highway truck transportation in the United States forever.”

About Vision Industries Corp.

Vision is a developer of zero emission electric/hydrogen hybrid powered vehicles and turnkey hydrogen fueling systems. Vision’s proprietary electric/hydrogen hybrid drive system combines the superior acceleration of a battery powered electric vehicle with the extended range provided by a hydrogen fuel cell. Vision uses major manufacturers as partners or sub contractors to produce its vehicles. This business approach avoids massive outlays of startup capital. Many regional, state and federal alternative energy programs in the form of grants, subsidies, tax credits and loans exist or are planned. For more information on Vision Industries Corp., please visit www.visionindustriescorp.com

May 25, 2010 - 7:44 AM No Comments

Daimler, Toyota mulling joint fuel cell project: report

German luxury car maker Daimler and Toyota, the world’s biggest auto group, are mulling joint development of fuel cells for electric vehicles, a press report said Tuesday.

“There is strong interest in sharing development costs” via a joint venture, a source close to Daimler told the Financial Times Deutschland.

It would be the first major cooperative project for the two groups, the newspaper added.

Fuel cells use a reaction of hydrogen and oxygen to produce electricity in a process that does not emit heat-trapping gasses, which contribute to global warming.

Production of the hydrogen needed can result in the production of such gases however, and as such there are some environmental issues associated with the process.

Daimler has already invested more than one billion euros (1.23 billion dollars) in fuel cell technology since 1994, two years after Toyota began exploring it.

On Thursday, US electric car maker Tesla announced that Toyota would buy shares in Tesla, joining Daimler, which owns a stake of more than five percent

May 25, 2010 - 6:42 AM No Comments

Brown Chemists Report Promising Advance in Fuel-Cell Technology

Metal masters Vismadeb Mazumder (left) and chemistry professor Shouheng Sun, both of Brown University, have demonstrated that a unique core-shell nanoparticle is a cheaper, more active and longer-lasting fuel-cell catalyst than commercially available platinum products. Credit: Mike Cohea, Brown University
Chemists at Brown University have come up with a promising advance in fuel-cell technology. The team has demonstrated that a nanoparticle with a palladium core and an iron-platinum shell outperforms commercially available pure-platinum catalysts and lasts longer. The finding, reported in the Journal of the American Chemical Society, could move fuel cells a step closer to reality.

PROVIDENCE, R.I. [Brown University] — Creating catalysts that can operate efficiently and last a long time is a big barrier to taking fuel-cell technology from the lab bench to the assembly line. The precious metal platinum has been the choice for many researchers, but platinum has two major downsides: It is expensive, and it breaks down over time in fuel-cell reactions.

In a new study, chemists at Brown University report a promising advance. They have created a unique core and shell nanoparticle that uses far less platinum yet performs more efficiently and lasts longer than commercially available pure-platinum catalysts at the cathode end of fuel-cell reactions.

The chemistry known as oxygen reduction reaction takes place at the fuel cell’s cathode, creating water as its only waste, rather than the global-warming carbon dioxide produced by internal combustion systems. The cathode is also where up to 40 percent of a fuel cell’s efficiency is lost, so “this is a crucial step in making fuel cells a more competitive technology with internal combustion engines and batteries,” said Shouheng Sun, professor of chemistry at Brown and co-author of the paper in the Journal of the American Chemical Society.

The research team, which includes Brown graduate student and co-author Vismadeb Mazumder and researchers from Oak Ridge National Laboratory in Tennessee, created a five-nanometer palladium (Pd) core and encircled it with a shell consisting of iron and platinum (FePt). The trick, Mazumder said, was in molding a shell that would retain its shape and require the smallest amount of platinum to pull off an efficient reaction. The team created the iron-platinum shell by decomposing iron pentacarbonyl [Fe(CO)5] and reducing platinum acetylacetonate [Pt(acac)2], a technique Sun first reported in a 2000 Science paper. The result was a shell that uses only 30 percent platinum, although the researchers say they expect they will be able to make thinner shells and use even less platinum.

Less platinum, better efficiency: The multimetallic nanoparticle  created by Brown University chemists for fuel-cell reactions uses a  palladium core and an iron-platinum  shell.     Credit: Sun  Lab/Brown University Less platinum, better efficiency The multimetallic nanoparticle created by Brown University chemists for fuel-cell reactions uses a palladium core and an iron-platinum shell.
Credit: Sun Lab/Brown University
“If we don’t use iron pentacarbonyl, then the platinum doesn’t form on the (palladium) core,” Mazumder said.

The researchers demonstrated for the first time that they could consistently produce the unique core-shell structures. In laboratory tests, the palladium/iron-platinum nanoparticles generated 12 times more current than commercially available pure-platinum catalysts at the same catalyst weight. The output also remained consistent over 10,000 cycles, at least ten times longer than commercially available platinum models that begin to deteriorate after 1,000 cycles.

The team created iron-platinum shells that varied in width from one to three nanometers. In lab tests, the group found the one-nanometer shells performed best.

“This is a very good demonstration that catalysts with a core and a shell can be made readily in half-gram quantities in the lab, they’re active, and they last,” Mazumder said. “The next step is to scale them up for commercial use, and we are confident we’ll be able to do that.”

Mazumder and Sun are studying why the palladium core increases the catalytic abilities of iron platinum, although they think it has something to do with the transfer of electrons between the core and shell metals. To that end, they are trying to use a chemically more active metal than palladium as the core to confirm the transfer of electrons in the core-shell arrangement and its importance to the catalyst’s function.

Miaofang Chi and Karren More at the Oak Ridge Laboratory also contributed to the paper. The U.S. Department of Energy’s Office of Energy Efficiency and Renewable Energy funded the research as part of its Fuel Cell Technologies Program.

May 24, 2010 - 4:41 PM No Comments

Drexel to power robotic subs;Research partnership to develop hydrogen fuel cells for Navy

Josh Kurtz

Drexel will serve as a research partner in a recent agreement that provides the United States Navy with a new hydrogen fuel system for Unmanned Undersea Vehicles, according to Danielle Tadros, Business Coordinator, A.J. Drexel Nanotechnology Institute.

Drexel is involved in the project in part due to its relationship with AlumiFuel Inc., which is responsible for the project’s main fuel source, according to Tadros. AlumiFuel has been part of the Drexel Nanotechnology Institute’s Research Consortium for the past two years.

“We’ve been collaborating very closely with [AlumiFuel],” Tadros said.

According to Michael Schrlau, research assistant professor at the A.J. Drexel Nanotechnology Institute, the planned fuel process generates hydrogen using soda can-sized canisters of aluminum powder and other additives. Water is injected into the canisters, where it reacts with the aluminum powder after the powder’s oxide layer is degraded by the additives. The resulting reaction between the water and aluminum generates hydrogen.

“We want to help API [AlumiFuel] learn about their product so they can design a better product,” Schrlau said.

Drexel will help analyze the flow of water through the canister, look at different potential additive mixes for the powder and determine why and how the reactions in the canister occur.

Schrlau said the reactions “will be able to tell us a lot” and help with analyzing other chemical and particle reactions.

“We’re very excited because there’s a lot of science to learn here,” Schrlau said.

To help expand the research, Drexel has submitted a grant request to the National Science Foundation for the development of a carbon nanotube that could house the reactions occurring in the aluminum canister.

Schrlau said Drexel hopes to make nanotubes small enough for the reactions to be viewed in real time through scanning electron microscopes and transmission electron microscopes.

The grant request was specifically submitted by the departments of Materials Science, Engineering, Mechanical Engineering and the centralized research facilities of the College of Engineering.

Schrlau said examining smaller subsets of the reaction could help the analysis of particle design, amount, mix and reaction speed.

Drexel is interested in developing the hydrogen fuel technology for other uses, such as illustrating how nanoparticles aggregate and how chemical reactions occur, Schrlau explained. They are also interested in applying the process to cosmetics and paint emulsion, among other potential uses.

The first phase of the fuel project, which deals with proving the feasibility and effectiveness of the planed fuel system, is estimated to last from July 2010 to February 2011, according to Tadros.

According to Tadros, the second phase, which focuses on readying the fuel system for commercialization, will vary in length depending on the project’s development. Phase two could last up to three years, Schrlau said.

Phase three involves installing the system into Navy vehicles. Schrlau said he hopes all three phases can be completed in approximately five years.

Schrlau believes the hydrogen fuel cell will offer advantages over other technologies used by the Navy including batteries and borahydride. He said the hydrogen generating system would be smaller, lighter and have a higher energy density and longer life than batteries.

In addition, borahydride spontaneously reacts in water, making it less stable than the aluminum that is used by Drexel and its partners, Schrlau said.

“I know they [the Navy] look for a lot of different alternatives,” Schrlau said.

Tadros said Drexel has had a relationship in the past with the Navy.

She said the Nanotechnology Institute is optimistic the hydrogen fuel project will help the Institute expand further.

“It’s all about your track record,” Tadros said, adding that new funding is often based on past successful projects.

The Institute has been in existence for eight years and is part of the Department of Materials Science and Engineering, according to Tadros.

Ingenium Technologies, Inc. was awarded the fuel system agreement as part of the Small Business Technology Transfer program, according to an AlumiFuel press release on the agreement.

According to the press release, Ingenium plans to design the project’s overall system while AlumiFuel provides hydrogen fuel technology.

May 24, 2010 - 8:00 AM No Comments

Fuel Cell Today Portable Survey 2010 Launched

Fuel Cell Today, the leading information provider for the fuel cell industry, has today launched the 2010 Portable Fuel Cell Survey.

This year, Fuel Cell Today presents the portable survey as an extended edition, covering microportable (<5 W) through small portable (5 W – 500 W) to large portable (>500 W) in speciality vehicle applications. This covers a range of end-use applications that are analysed in detail for the first time in this report. We also include special sections on the supply chain, the consumer electronics sector and speciality vehicle applications.

The past year has been an extremely interesting one for the portable fuel cell sector, with the long-awaited commercial launch of the first batch of fuel cell battery chargers aimed at the consumer electronics market, the growth of niche market sectors, particularly those in the large portable space for utility power and specialised applications, and the imminent arrival of higher power density fuel cells for larger mobile devices such as the Apple ipad and Kindle reader.

The full report, together with a global state of the industry analysis section, is available for GBP 3,000. A free snaphot summary version of the report, together with ordering information for the full report, is available from http://www.fuelcelltoday.com/online/survey?survey=2010-05%2F2010-Portable.

The report contains a full analysis of the state of the fuel cell industry in 2009 and specific analysis of the portable sector including market developments, analysis of the supply chain, 10-year market forecasts, speciality vehicles and anticipated highlights of the coming year.

May 24, 2010 - 7:58 AM No Comments

Kia to sell 10,000 fuel cells by 2015

  • Kia says it will be biggest in fuel cells
  • Restricted sales start this year
  • 106mph and 375-mile range

Kia is gunning to become the world’s leading producer of fuel cell vehicles and says it will have 10,000 on the road by 2015.

It plans to sell between 1000 and 2000 a year between now and 2012, although initially cars will be offered only to government bodies and research institutions.

Currently the company’s fuel cell powers a 4×4 called the Borrego or Mohave, depending on market, but the platform underneath could be turned to other large applications, such as an MPV.

The fuel cell stack delivers electricity to an electric motor through a super-capacitor, not a battery, for quicker response.

It can accelerate the car from 0-62mph in 12 seconds, cruise at up to 106mph and cover as much as 375 miles on one tank of hydrogen. Kia calculates that on a well-to-wheel basis, which includes the energy required to produce and deliver the hydrogen, the Borrego is 42% efficient compared with 26% for a hybrid.

Kia is counting on the car having a 10-year life expectancy and says it has already reduced the component cost of the car by 95%.

All that’s needed now is a refuelling infrastructure and a firm on-sale date for the general public.

May 24, 2010 - 7:48 AM No Comments

Fuel Cell Workshop Held At Gorman Rupp Company

New age energies and green technologies were the focus of a Fuel-Cell Workshop held Friday at the Gorman Rupp Company in Mansfield. Industry leaders were on hand to talk about the growing fuel cell industry.

Dave Baldwin, Co-Coordinator of the workshop said the goal of the event was to raise awareness about fuel cells, moreso for local economic development people, local government leaders as well as business and industry, to understand the opportunities emerging in fuel cell technology.

Ohio Fuel Cell Coaltion Executive Director Pat Valente said in two or three years they expect to see a significant amount of fuel cells being deployed into the market that are Ohio based companies.

The Fuel Cell Workshop was sponsored by the Ohio Fuel Cell Coalition and the Richland Community Development Group.

May 24, 2010 - 7:15 AM No Comments

Hydrogen Highway Starts In Wallingford

CT firm plays key role in creating a market for alternative energy cars

By Brad Kane

Proton Energy Systems in Wallingford broke ground last week on the first connection of its planned Hydrogen Highway, a network of nine stations stretching from Maine to Miami where hydrogen cars can be refueled. The SunHydro/Proton Energy fueling station installationat at the  Las Vegas, Nev., Valley Water District, offers a glimpse into the  future.

The Hydrogen Highway spearheads the company’s effort to create an East Coast market for cars powered by hydrogen fuel cells and, therefore, boosting the need for Proton Energy’s products that create hydrogen out of water.

Even though these SunHydro stations will operate at a loss for the conceivable future, the effort is vital to convincing automakers an American market exists for fuel cell cars, particularly on the East Coast, said Rob Friedland, Proton president and CEO.

“As people get more comfortable with this technology, they will realize it has all the benefits you want from an alternative energy,” Friedland said. “It’s not as daunting or complicated as some people make it out to be.”

Founded in 1996 in Rocky Hill, Proton Energy Systems is a global leader in hydrogen energy, holding 68 related to hydrogen generation. The company, now located in Wallingford, has more than 75 employees.

As of the 2008 report by the National Hydrogen Association, there were 210 hydrogen-powered cars on the road in the United States, although that number likely has grown to 300 vehicles, said Patrick Serfass, spokesman for the National Hydrogen Association.

The majority of those cars — as well as half of the operational hydrogen fueling stations — are in California, particularly Southern California. The vehicles range from SUVs such as the Chevy Fuel Cell EV, Hyundai Tucson FCEV and the Toyota FCHV-adv to smaller, sportier rides such as the Mazda RX-8, Honda FCX Clarity and the Mercedes-Benz B-Class F-CELL.

All of the fuel cell cars in the field are pre-production vehicles and are not available for purchase in the United States. Some are available for lease, such as the Honda FCX Clarity for $600 month with insurance included.

Auto manufacturers are targeting 2015 as the year most of the models will go on sale, Serfass said, but that depends on whether they believe a market exists for the cars.

“The auto manufacturers don’t want to roll out 100 vehicles; they want to roll out several hundred or thousands,” Serfass said.

The joint effort by SunHydro and Proton Energy Systems — both companies are owned by entrepreneur Tom Sullivan — to build these stations on the East Coast could drastically change automakers’ opinion of this as a viable market for fuel cell cars, Serfass said. With the nine SunHydro stations and other hydrogen stations scattered in New York and Washington, D.C., owning these alternative-energy cars would be much more convenient.

“The auto manufacturers don’t want to roll out a vehicle that will be entirely inconvenient for the owner to maintain,” Serfass said.

Fuel cell cars are zero emission vehicles that run an electric motor using compressed hydrogen gas. The only by-product of the systems is water vapor. The only time carbon dioxide is emitted into the environment is during the creation of the hydrogen, which typically is accomplished with natural gas.

All the SunHydro stations would use Proton Energy equipment that creates hydrogen out of water using solar power, so there are no carbon dioxide emissions.

“Our goal would be to be 100 percent off the grid,” said Michael Grey, president of SunHydro.

Proton Energy expects to be completed with its nine stations by 2012. After the first in Wallingford, next will be one in Braintree, Mass. followed by stations in Maine and Delaware, or perhaps New Jersey.

Fuel cell cars have a range of 200-450 miles, so with the hydrogen highway stations strategically placed, owners can drive the entire East Coast using the alternative fuel.

The cost to fill a fuel cell car with hydrogen is roughly equivalent to filling a car with gasoline, Friedland said. Hydrogen may cost as much as $5 per kilogram, but a kilogram of hydrogen gets more than twice the mileage of a gallon of gas, so a 5-kilogram hydrogen car can drive as far as a 12-gallon gasoline vehicle.

The Mercedes Benz B-Class F-CELL gets the equivalent of 71.3 miles per gallon out of its hydrogen system, according to the Mercedes Benz marketing materials.

Central Connecticut already has one hydrogen fueling station on UTC Power’s campus in South Windsor. The station serves the campus’ fuel cell vehicles and the CTTransit fuel cell bus that has served Greater Hartford since 2007.

Since opening in 2007 with the help of a $2.9-million Federal Transit Administration grant, the only time the UTC Power station sold fuel to a private customer was in 2008 when the Hydrogen Road Tour drove the East Coast.

“CTTransit is expecting to get more (fuel cell) buses this year, so the station will continue to be used,” said Peg Hashem, spokeswoman for UTC Power.

The automakers plan to roll out their hydrogen fuel cell centers around locations where stations already exist, Serfass said. The first place will be Southern California followed by Northern California. Next will be Washington, D.C. and the greater New York City metropolitan area, which will include Connecticut.

Fuel cell vehicles will be competing in the Connecticut alternative energy car market with the more visible electric vehicles, those cars running on a battery that is recharged by plugging it into an energy source, such as an outlet.

A group of utility companies including Northeast Utilities and United Illuminating have been working with Gov. M. Jodi Rell’s Electric Vehicles Infrastructure Council to be prepared for companies such as General Motors, Ford and Nissan to introduce their electric cars into Connecticut next year.

Northeast Utilities, which owns Connecticut Light & Power, already has three charging stations in place for electric cars and has been in talks with dozens of communities and customers about installing more, said Watson Collins, Northeast Utilities manager of business development.

An electric car charging station takes as little as a week to get up and running, so infrastructure can balloon quickly and prove to the automakers that Connecticut is a place to sell their cars, Collins said.

“We are trying to say the infrastructure is here, and the consumers are here,” Collins said.

As for the hydrogen car, the majority of the market so far is outside the United States. More than 60 percent of hydrogen units sold by Proton Energy Systems are for foreign use, Friedland said. The company believes this country can have a viable hydrogen car market, but the manufacturers and the consumers have to be convinced of that.

“Removing hydrogen as a viable alternative energy option is already a mistake,” Friedland said.

The Wallingford hydrogen fueling station is expected to be finished in June, and Proton Energy Systems will have a showcase at the grand opening with fuel cell cars.

“The other key to this is education and outreach,” Friedland said. “As people see it, they fear it less.”

May 24, 2010 - 6:51 AM No Comments

Fuel cell startup Trenergi finds seed funding

Fuel cell developer Trenergi Corp. has raised more than half of a seed round of $1 million in debt, according to a regulatory filing and the company’s president.

The Hopkinton-based company, now about a year old, is aiming to develop fuel cells that would generate electricity for residences while producing heat and hot water as a free byproduct. The technology is intended to save an average of approximately 28 percent of energy cost, said company president Charles Myers.

Trenergi has raised $610,000 out of a total $1 million debt round, according to a filing with the U.S. Securities and Exchange Commission. Myers said the funding came from family, friends and other investors, who Myers did not name.

Myers said the funds are supporting the company’s proof of concept, which should be complete next week, and the company’s alpha phase of development of field units. The company will soon pursue venture funding, he said.

The company is developing 1-kilowatt, 3-kilowatt and 5-kilowatt units. “Three sizes allow us to offer the best size for the square footage of the residence,” Myers said.

Beta testing will include exposure of the units to a variety of climates and usages, he said. Trenergi is aiming to have a commercially-available product in less than three years, Myers said.

The company has six employees, he said. The CEO is Norman Strate, who has been active in the local tech startup scene in recent years.

May 22, 2010 - 10:46 AM No Comments

Michigan honors Flint’s ‘fuel cell father’:

Kettering University scientist aims “to rebuild Flint one company, one job at a time”

By Beata Mostafavi

berry.jpg

K. Joel Berry, head of the mechanical engineering department and the fuel cell center at Kettering University. (File photo from 2006)

FLINT, Michigan — He’s been called the city’s “fuel cell father,” spending long hours in a Kettering University basement lab researching, designing and testing technology he believes can help save Flint.

And now the driving force behind Kettering’s fuel cell center, K. Joel Berry, is being recognized as one of the state’s most promising entrepreneurs.

The scientist’s three-year-old Kettering spinoff company — Global Energy Innovations, whose product can power commercial buses, military bases and homes on clean and efficient natural gas — is carving a spot as one of the leaders of Michigan’s future economy with back-to-back awards.

The startup company garnered attention in January, when it beat out more than 200 other companies in a prestigious contest that identifies the best new technologies coming out of Michigan. GEI won first place in the new business category of the Great Lakes Entrepreneur’s Quest Michigan Business Plan Competition, along with a $5,000 prize.

Then in April, GEI, housed in Kettering’s TechWorks incubator, which Berry helped build, became the first Flint business to be named one of Michigan’s 50 Companies to Watch.

“It signifies that I’m doing something right,” Berry, 54, said with a laugh. “It’s a validation that the state values our technology and sees a future for our company to be a partner in the rebuilding of Michigan. It is a recognition that we are working to rebuild Flint one company, one job at a time.”

But for Berry, the accolades are also a sign of how far he’s come in a longtime quest.

It all goes back to that eco-friendly, electricity-producing battery called the fuel cell, which is slowly changing the way the world is powered and holds untapped potential in alternative energy and the economy.

You could say it’s become Berry’s love affair.

The engineer still believes in the dream that has helped earn him his visionary reputation on campus: to see Flint become the Midwestern hub for fuel cell research and development.

“We created the automobile in Flint,” said Berry, whose office is just feet away from the acres of the now-barren Chevy in the Hole, a General Motors site that was once home to bustling automobile factories. “It would be a shame if this new energy technology completely bypassed the birthplace of the automobile. I want to see Flint and Kettering become part of the next revolution of energy technology and become a leader.”

It was Berry who pushed for the $5 million in U.S. Economic Development grant money five years ago to build the incubator and the new Innovation Center, another pet project that officially opens in August. It will house Swedish Biogas International and provide research space for other companies.

He pushed forward with his ideas again and again despite false starts and disappointments along the way, such as stalled funding and a dashed dream of partnering with Delphi Corp. to produce fuel cells commercially in 2006.

“There are always roadblocks and nonbelievers and those who think you are wasting your time and those who think it will never happen, and so it’s always sweet when we do achieve success,” he said.

As the head of Kettering’s mechanical engineering department, Berry, who came to Flint in 1973 to attend Kettering (then GMI), wants to help President Stan Liberty mold the private engineering school into a training ground for fuel cell technology and development.

“Much of the innovation and entrepreneurship momentum we have today has its roots in Joel’s efforts,” said Neil Sheridan, Kettering’s TechWorks director.

And now Berry’s research is hitting the marketplace. GEI creates custom commercial fuel cell systems that require efficient and near-zero emissions and run silently for the commercial truck market. The company also is working on a U.S. Department of Defense project to help power an Air Force base in Florida.

Berry, who has invested $2 million into GEI through personal money and grants, hopes someday to create hundreds of local jobs.

“I think that Joel Berry will be regarded in history as the father of fuel cell employment in Flint,” Sheridan said.

Roughly 200 companies were nominated this year for the five-year-old Michigan’s 50 Companies to Watch list, which honors only second-stage companies that have six to 99 employees, work with at least $750,000 and are growing — not just surviving.

“There are many good companies in Michigan, but judges are looking for a company’s ability to really take off on a product and how they are going to take it to the next level,” said Joy Kitamori, manager of the program, which is offered through the Edward Lowe Foundation, a Cassopolis-based group that supports entrepreneurship.

“They are leading the way in their marketplace, attracting dollars into the state, making a place for themselves globally, adding jobs and are at the forefront of creating innovation.”

She said second-stage companies are a backbone, accounting for 11.1 percent of the establishments in Michigan and representing 35.7 percent of the jobs in the state.

GEI impressed the panel of judges, which includes representatives from the small-business community, Kitamori said.

“They’re a really good example of a company that’s made use of its community resources, a spinoff of Kettering that grew out of the incubator and that is commercializing innovations created right here,” she said. “It appears their products are being sought globally and are on the cusp of making a difference in how energy is used.”

May 22, 2010 - 10:43 AM No Comments

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