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FuelCell Energy Announces Proposed Public Offering of Common Stock

 

DANBURY, Conn– FuelCell Energy, Inc. (FCEL ) , a leading manufacturer of high efficiency ultra-clean power plants using renewable and other fuels for commercial, industrial, government, and utility customers, announced today its intention to offer, subject to market and other conditions, shares of common stock in an underwritten public offering. The Company also expects to grant the underwriters a 30-day option to purchase up to an additional 15 percent of the shares of common stock offered in the public offering to cover over-allotments, if any. The Company intends to use the proceeds from this offering for product development, project financing, expansion of manufacturing capacity, and general corporate purposes. The offering is expected to price before 9:30 am EDT on Friday, June 25, 2010.

Lazard Capital Markets LLC is acting as the sole book-running manager and Canaccord Genuity Inc. is the co-manager for the offering.

The Company intends to offer and sell these securities pursuant to the Company’s existing shelf registration statement filed with the Securities and Exchange Commission on January 23, 2007, which was declared effective on February 6, 2007. A prospectus supplement describing the terms of the offering will be filed with the Securities and Exchange Commission and will form a part of the effective registration statement. When available, copies of the preliminary prospectus supplement, the final prospectus supplement and accompanying base prospectus related to this offering may be obtained from the Securities and Exchange Commission’s website at http://www.sec.gov or Lazard Capital Markets LLC, 30 Rockefeller Plaza, 60th Floor, New York, NY 10020 or via telephone at (800) 542-0970 or Canaccord Genuity, Attn: Syndicate Department, 99 High Street, 12th Floor, Boston, MA 02110 or via telephone at (800) 225-6201.

June 24, 2010 - 4:27 PM No Comments

SFC secures Bundeswehr order for portable all-in-one power solution

 

•    SFC delivers autonomous power generating systems for Bundeswehr operations abroad
•    Energy solution is based on the successful, multiply decorated portable JENNY fuel cell by SFC which creates a highly efficient energy network in combination with the SFC Power Manager
•    Solution enables longer mission duration and therefore increases soldier’s safety in the field

Brunnthal/Munich, Germany– SFC Smart Fuel Cell AG, technology and market leader for mobile and off-grid power solutions based on fuel cells, has received another order by the German Bundeswehr. SFC delivers autonomous power generating systems for Bundeswehr operations abroad. The energy solution ordered is based on the portable JENNY fuel cell which is successfully sold by SFC to soldiers as mobile off-grid power source for over a year now and is deployed in various international defense missions worldwide. In combination with the SFC Power Manager, an intelligent converter which assures optimal operation of available consumers, it builds a strong energy network for power supply in the field. The order volume is over 220,000 Euro. The delivery of the systems takes place in 2010.

The portable JENNY fuel cell by SFC Smart Fuel Cell is a small, under 2 kg lightweight power generator for soldiers and applications in the field. It can either be worn directly on the body in a belt or operate devices unmanned in the field. Because of its outstanding properties it was multiply and internationally awarded, most recently by the U.S. Department of Defense Wearable Power Prize and the Wall Street Journal Technology Innovation Award. Its usage in combination with the SFC Power Manager provides soldiers in multi-day missions with weight reduction up to 80 percent compared to conventional energy supply such as batteries. Power generation inside the JENNY fuel cell is silent, non-detectable without harmful fumes. Energy supply is fully automatically and without any user intervention over long periods of time.

The energy solution based on the JENNY fuel cell ordered within this contract can also be deployed undercover as a protection against environmental influences or reconnaissance. A challenge which is mastered by the JENNY fuel cell thanks to its innovative technology which is based on SFC’s year-long experience in developing reliable power supply solutions for demanding applications. „It is not enough to simply perfect a technology. It has to perform exactly according to expectations of the user in the particular application scenario“, says Dr. Peter Podesser, CEO of SFC Smart Fuel Cell AG. “The superior product features of the system enable longer mission duration at low detectability and thereby increase soldier’s safety in the field. Based on successful fielding, we have a reason to anticipate that this decision can lead into further procurement”.

June 24, 2010 - 10:36 AM No Comments

Fuel cell tram trial

 

SPAIN– Metre-gauge operator FEVE is planning to start trials with fuel cell traction between Ribadesella and Llovio on its non-electrified Santander – Oviedo route by the end of this year.

A hydrogen fuel cell is to be installed in a 1970s tramcar to power four traction motors, capable of operating at up to 25 km/h and making 15 return trips of 10 km every day.

The fuel cell is being developed by Cidaut, a research foundation specialising in transport and energy that draws on the academic expertise of the University of Valladolid. It weighs 80 kg, including a 10 kg fuel tank.

‘The best thing is that emissions are zero’, project leader Alberto Montes told El Mundo.FEVE’s Director of International & Institutional Relations José Antonio Sebastián said that the new technology could be used on future light rail networks.

As well as Cartgena – Los Nietos, where tenders have been called for four vehicles (RG 2.10 p16), FEVE plans to convert routes in Asturias, Galicia and Cantabria to tram-train operations.

June 24, 2010 - 10:34 AM No Comments

Microcab to Source Fuel Cells from Serenergy

 

Microcab Industries Limited of Coventry, UK, and Serenergy A/S of Hobro, Denmark, are pleased to announce an agreement for the supply of 10 Serenus 3kW fuel cell systems for use in Microcab’s next generation of demonstration fuel cell hybrid vehicles.

 

Serenus 3kW  fuel cellSerenergy is presently the only European company to have commercialised the High Temperature PEM technology which is used in its fuel cells, and which Microcab considers advantageous for its targeted automotive applications. Compared with the commonly used Low Temperature PEM technology, Serenus fuel cells have a higher internal temperature of 150 C or more, enabling them to operate over a wider range of environmental temperatures, and to use less pure hydrogen fuel. Furthermore, the high temperature exhaust greatly facilitates the use of otherwise wasted thermal energy for heating of the vehicle interior, thus increasing overall system efficiency.

Microcab in  an earlier trial at Birmingham UniversityMicrocab employs lightweight construction techniques and fuel cell hybrid powertrains with electric drive in versatile and capable vehicles for light transport operations in urban and suburban areas. The hybrid powertrain architecture combines the power capability of a lithium-ion battery with the energy capability of a hydrogen fuel cell to achieve the necessary vehicle performance with ultra-low energy usage and zero emissions.

Microcab and Serenergy intend to work closely together to develop this and future automotive applications. Initially Serenergy will supply a system module comprising the fuel cell, its control system, and power-conditioning circuitry to supply the hybrid battery and electric drive.

Microcab and its associates will initially manufacture 8 vehicles to the new design, which will be supplied to Coventry University for participation in a 12-month trial as part of the Coventry and Birmingham Low Emissions Demonstrator project.

Microcab Industries Limited develops and supplies innovative zero-carbon vehicles for light urban transport. Current development work is enabled by support from the UK Advantage Niche Vehicle R&D Programme, funded by Advantage West Midlands and managed by Cenex.
Contacts: johnj@microcab.co.uk; julia.chance@cenex.co.uk
www.microcab.co.uk www.nichevehiclenetwork.co.uk www.cenex.co.uk

 Serenergy A/S is the world’s leading manufacturer of HTPEM fuel cells in the kW range. Serenergy designs and produces cost-efficient and highly reliable fuel cells for system integrators.
Contact: psk@serenergy.com
www.serenergy.com

 Coventry University, already prominent in automotive design, is developing new activities in the area of low carbon technology within the automotive industry and is a partner in the CABLED consortium.
Contact: ali.bushnell@coventry.ac.uk
www.coventry.ac.uk

 The Coventry and Birmingham Low Emissions Demonstrator (CABLED) consortium, supported by the UK Technology Strategy Board and Advantage West Midlands, and led by global engineering consultancy Arup, is undertaking a 12-month demonstration of 110 ultra low carbon vehicles and associated infrastructure. Microcab, assisted by additional funding through Coventry University from the UK Department of Energy & Climate Change, is providing the only hydrogen fuel cell vehicles within the demonstration fleet. CABLED is the largest of eight regional consortia in the Technology Strategy Board’s £25m UK-wide demonstrator trial of over 340 ultra low carbon vehicles, which is accelerating the development of new technologies and their adoption by consumers.
Contact: stuart.humphreys@grayling.com
http://cabled.org.uk

June 24, 2010 - 10:00 AM No Comments

A New Trendsetting Fuel Cell Alliance

 

 

 

SELB, Germany and ESCHENBACH, Germany — Today H.C. Starck Ceramics and Kerafol announced their partnership in manufacturing, sales, and distribution of high-temperature SOFCs (solid oxide fuel cells) doped with scandium.

Because the scandium-doped zirconia used in these fuel cells is highly conductive, scandium-doped solid oxide fuel cells have the highest output potential of all electrolyte-supported fuel cells (ESC), and as a result are an essential, key component of innovative fuel cell technology.

H.C. Starck and Kerafol’s alliance creates new potential synergies which complement each other reciprocally, with Kerafol contributing its specialized knowledge of scandium-doped electrolytes and H.C. Starck its expertise in electrode manufacturing to the partnership. The result is the first high-output, scandium-doped cell with its origins in Europe.

In conjunction with the appropriate interconnectors, the new cells make it possible to manufacture SOFC stacks and systems with extraordinary performance and a long service life. Scandium-doped cells are particularly suited for use with interconnectors which contain a high percentage of chromium (CrFe5). The cell, marketed under the product name ESC 10, is available for purchase immediately.

“I am extremely pleased that thanks to H.C. Starck and Kerafol bundling their fuel cell expertise, we were able to develop this new, promising fuel cell product in such a short period of time,” says Dr. Andreas Sieverdingbeck, President of H.C. Starck Ceramics GmbH & Co. KG. “Each company’s range of competencies complements the other perfectly.”

Mr. Franz Koppe, President and Owner of Kerafol – Keramische Folien GmbH says: “The results of our jointly-developed ESC cell were excellent, and as a result we can manufacture cells with significantly improved performance characteristics at market-friendly rates. Together we are strong.”

H.C. Starck has been active in the field of fuel cell technology since 2003. In early 2008, H.C. Starck put two productions lines into operation at its facility in Selb to manufacture solid oxide fuel cells. These lines were especially designed for cells based on anode substrate and electrolyte technology, and have a capacity of approximately 200,000 cells annually.

With its existing state-of-the-art manufacturing equipment which can manufacture products with a width of up to one meter in cleanroom conditions, Kerafol can produce more than one million oxide and non-oxide ceramic goods annually. This means that together, the companies not only have the ability to manufacture cells with improved performance characteristics, but will also be able to manufacture the quantities required to meet the increased demand.

Some background information on solid oxide fuel cells: Fuel cells are considered to be a key technology for the future of electricity generation. In an SOFC, a fuel’s chemical energy is directly converted into electrical energy in an electrochemical reaction. This is why fuel cells are more effective than other conventional means of generating electricity. Fuel cell technology is an environmentally-friendly and highly efficient solution for on-site energy or for combined heat and power. Solid oxide fuel cells have the ability to make direct use of a number of different types of fuel (natural gas, hydrogen, methanol, ethanol, biogas, or carbon monoxide). In order to achieve higher voltages, several cells are joined together in a series into what is known as a stack, and this stack forms one electricity-supplying fuel cell unit.

About H.C. Starck

The H.C. Starck Group is a leading global supplier of refractory metals, technical ceramics, and conductive polymers, and serves growing industries such as the electronics, chemicals, automotive, medical technology, aerospace, energy technology, and environmental technology industries, as well as mechanical engineering and tool manufacturers. H.C. Starck has its own manufacturing facilities located in Europe, America, and Asia, and has close to 3,000 employees worldwide.

About Kerafol

Kerafol – Keramische Folien GmbH develops and produces ceramic tape for a wide range of applications using a special manufacturing process. Ceramic tape is used in a number of different fields, including microelectronics, thermal management, filtration, sensor technology, porcelain tape, and solid oxide fuel cells. Kerafol has played an active role in the field of solid oxide fuel cells, specifically scandium-doped fuel cells, since development of the technology began in the 1990’s.

June 24, 2010 - 8:02 AM No Comments

High oxygen production in thin-film materials could lead to greatly increased power production for fuel cells

This diagram shows the experimental setup used by Prof. Yang Shao-Horn and her team. The circles in the background represent tiny thin-film electrodes made of a material called strontium-substituted lanthanum cobalt perovskite, or LSC (whose crystal structure is diagrammed at top left). The diagram shows the lab setup used to measure the catalytic activity of the LSC. The circular cutout shows how oxygen molecules (O2) are exchanged on the LSC surface.

This diagram shows the experimental setup used by Prof. Yang Shao-Horn and her team. The circles in the background represent tiny thin-film electrodes made of a material called strontium-substituted lanthanum cobalt perovskite, or LSC (whose crystal structure is diagrammed at top left). The diagram shows the lab setup used to measure the catalytic activity of the LSC. The circular cutout shows how oxygen molecules (O2) are exchanged on the LSC surface.

 

CAMBRIDGE, Mass. — A surprising MIT laboratory finding about the behavior of a thin sheet of material — less than a thousandth of the thickness of a human hair — could lead to improved ways of studying the behavior of electrodes and perhaps ultimately to improvements in the rate of power production from one type of fuel cell, according to a report published this week.

In many cases, thin layers of a material — which may be just a few molecules in thickness —exhibit properties different from solid blocks of the same material. But even though this is a known phenomenon, the nature of the difference the MIT team found in the behavior of thin films of a mineral called perovskite — in this case, deposited as a thin layer on the surface of a crystal of zirconia — “was very much unexpected,” says Yang Shao-Horn, associate professor of mechanical engineering and materials science and engineering at MIT, who led the research. The work was done in collaboration with Hans Christen and Michael Biegalski at Oak Ridge National Laboratory.

In fuel cells, a fuel such as hydrogen or methanol reacts in the presence of a catalyst, releasing its energy chemically rather than being burned. As a result, they can produce electricity from fuel without releasing greenhouse gases or other pollutants, and so are considered a promising alternative approach for generating electricity. And unlike batteries, which need to be recharged in a time-consuming process, a fuel cell can be refueled quickly.

The main barrier to achieving greater efficiency in fuel cells, which are considered a promising way of supplying electricity for future transportation or stationary power systems, is the slow rate of oxygen production from the cathode, one of the two electrical terminals in the device. In present fuel cells, the rate of oxygen production is the limiting factor in the power output of the device. Many teams are pursuing ways of improving the efficiency and reducing the costs of the two major kinds of fuel cells: solid-oxide fuel cells (SOFCs) and proton-exchange membrane fuel cells (PEMFCs). This work addresses potential improvements in the cathode in SOFCs, which could find application in large-scale systems such as electric power plants. The new research suggests that this activity can be increased by up to a hundredfold by using thin films of certain perovskite compounds.

Previous research had found the opposite, that thin films of some perovskite materials were a hundred times less reactive than the bulk material, Shao-Horn says. The new results are published online in the German journal Angewandte Chemie; the lead authors are former student Gerardo la O’ and postdoctoral researcher Sung-Jin Ahn. The work was supported by the NSF, the U.S. Department of Energy, Oak Ridge National Laboratory and the King Abdullah University of Science and Technology.

By creating the kind of high-purity thin films of material used in this study — in this case, as thin as 20 nanometers, or billionths of a meter — it is possible to study the details of how the surface of the material reacts in much greater detail than has been possible in research with bulk materials. This research shows that unique thin-film characteristics can enhance catalytic activity.

“To our knowledge, this is the first time these thin films have been shown to exhibit” the increased activity, Shao-Horn says. The team is continuing research to verify their hypothesis about the reasons for the increased activity, and to explore a family of materials that may exhibit similar properties. “We are working on determining why” the activity level is so high, Shao-Horn says, suggesting that the increased reactivity of the material may result from a stretching of the surface. This may change the content of oxygen vacancies or the electronic structure of the material, possibilities that are being examined in Shao-Horn’s group.

While many fuel cells use electrodes made from precious metals such as platinum, the electrodes in this experiment are made from relatively abundant materials such as cobalt, lanthanum and strontium, Shao-Horn says, so they should be relatively inexpensive to produce. In addition, this material works at much lower temperatures than existing SOFC electrodes, which could be an advantage because “at lower temperatures, material degradation can be much reduced,” she says. Whereas current cells work at temperatures of 800 degrees Celsius or higher, the new approach might lead to materials that could work at 500 degrees Celsius, as was the case in these tests.

This work is just the first step, however. Shao-Horn stresses that this is the beginning of a new fundamental research area, and could lead to exploration of a whole family of possible compounds in search of one with an optimal combination of high catalytic activity and high stability. This highly reactive material could find a home in places other than fuel cells: for instance, in high-temperature sensors and in membranes used to separate oxygen from nitrogen and other gases, she says.

June 24, 2010 - 7:21 AM No Comments