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| The Basics | Fuel Cell News | |
| Highlights:
*Significant Fuel Cell Industry Milestones/Events |
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| --Sustainable
Energy Technologies: Follow Up Orders for Japanese Fuel Cell Inverters
--Fuel Cell Technologies Raises Over $4.2 Million --Norris company faces bankruptcy questions-ZeTek Power --Pacific Fuel Cell Corp. Announces Appointment of Dr. Xin Wang as Vice President and Director of Research and Development --Carefree hydrogen firm hopes to be 'world beater' --Startech Environmental Signs Contract for Production Of Starcell Hydrogen From Trash for U.S. Department of Energy --Proton Energy Systems Launches HOGEN(R) H Series Hydrogen Generator* --Japan Steel Works Teams With GTI to Support Advanced Hydrogen Storage Using Hydrides* --Fuel cells could break through in stationary power --Funds for hydrogen fuel cell development-Edison Materials Center to get $3M --MTI Microfuel Cells Files 50th Patent Application* --Palcan Fuel Cells Announces A Joint Venture To Substantially Lower The Cost Of Fuel Cells And Create Significant Revenue* --Plug Power Announces New Product Line for On-Site Hydrogen Generation Market* --Request for proposal - PEM Stacks for Fuelcell Locomotive --New Fuel Cell Power Plant Dedicated at Yale University * --DaimlerChrysler delivers its first fuel-cell passenger car to Tokyo Gas* --Kettering University Researchers Discover New Way to Produce Nanotubes*
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| Sustainable
Energy Technologies: Follow Up Orders for Japanese Fuel Cell Inverters
Sustainable Energy Technologies Ltd. (TSXV: STG), today announced that it has delivered the first of several grid-interactive inverters ordered by Nuvera Fuel Cells ("Nuvera") for demonstrations of its Avanti TM distributed generation fuel cell system in Japan. "We are very excited about this delivery. It offers a superb opportunity to work with Nuvera's Japanese partners and to demonstrate the competitive advantages of Sustainable Energy's technology in what will almost certainly be the first, and most important, commercial market for stationary fuel cells," said Michael Carten, President & CEO of Sustainable Energy. Sustainable Energy's unique bi-directional, grid-interactive fuel cell inverters are now being used by two of the world's leading developers of stationary fuel cells, and Nuvera's repeat orders are an important validation of the Company's technology in the rapidly emerging market for distributed generation. "Nuvera has been using Sustainable Energy's inverter products for many months now, and we are very pleased with their performance," said Josh Lutton, Director, Distributed Generation. "It is a simple, robust design that offers excellent grid-interactive performance." About Nuvera: Nuvera Fuel Cells is a leading designer and developer of fuel cell power systems, fuel processors, and fuel cell stacks for the automotive, distributed generation, commercial, and industrial markets. Since 1992, its fuel processors and PEM fuel cell stacks have been successfully tested and evaluated by major automobile and appliance manufacturers, research institutions, telecommunications organizations, and industrial and energy companies. Nuvera's fuel processors have demonstrated the ability to extract hydrogen from a number of liquid and gaseous fuels such as gasoline, ethanol, methanol, natural gas, kerosene, propane, butane, and more. Based in Calgary, Alberta, Sustainable Energy (www.SustainableEnergy.com) is a leader in developing and manufacturing intelligent power electronics products for alternative energy technologies. Intelligent power electronics, which convert the power output of the diverse generation and storage technologies to the high quality standard and predictable character required by electrical devices and the power grid, are among the key enabling technologies behind the emergence of distributed generation.
Fuel Cell Technologies Raises Over $4.2 Million Fuel Cell Technologies Corporation (FCT) announced that it has received
proceeds of $4,238,211.63 for the issuance of an
Norris company faces bankruptcy questions-ZeTek Power Steven Norris, the newly appointed chairman of Jarvis,
faces fresh controversy next week when administrators raise concerns about
the conduct of ZeTek Power, a company of which he is a non-executive director.
Leonard Curtis, the company's administrator, is expected to recommend that the Official Receiver launches an investigation when it places ZeTek and two subsidiary companies into compulsory liquidation. A provisional court date for the insolvency hearing has been set for December 8. Stephen Swaden, the administrator to ZeTek, first raised his concerns about ZeTek and the two subsidiary companies in a letter to creditors last year when he informed shareholders that he was taking legal advice. "I have been contacted by a number of parties who have expressed concern about the conduct of the companies and certain of their past and present officers that I think should be investigated by the Official Receiver," wrote Swaden. There is no suggestion of wrongdoing by Norris, a former Conservative government minister who joined ZeTek in March 2000 as a non-executive director. But the administrator's concerns about the conduct of a company he was involved in will nevertheless be embarrassing. A spokesman for Norris said: "As far as he is concerned the directors of ZeTek acted entirely properly." ZeTek, which was involved in the development of fuel cell technology, was once a high flyer tipped to float on the stock market with a valuation of over $1bn (£580m). But in January 2001 PricewaterhouseCoopers, ZeTek's auditors, warned the directors of "fundamental uncertainty" when it signed off the group's accounts, arguing that the firm needed to raise additional funding. The company set about raising $50m in January 2001, but by August ZeTek had raised just $3.8m. In October the directors of the company placed the group and two subsidiary companies into administration. Last week Norris, the Conservative candidate for London Mayor, was appointed non-executive chairman of Jarvis, the troubled engineering group. The appointment has proved controversial. Political opponents have claimed that Norris's Jarvis appointment has created a conflict of interests. One of the major roles of the mayor is to oversee London's transport system. Jarvis is involved in the maintenance of the London Underground. In The Telegraph today Norris defends his decision to take on the £100,000-a-year role. "I am more than able to manage my diary around campaigning and holding down a job. The vast majority of people in this life have to work. I do not think that disqualifies you or me from standing for public office," he added. "The choice that London will have is between someone who has business experience, has ministerial experience and knows how to run London, and a couple of candidates neither of whom have had a job other than being paid as a public representative."
Pacific Fuel Cell Corp. Announces Appointment of Dr. Xin Wang as Vice President and Director of Research and Development Pacific Fuel Cell Corp. (OTCBB:PFCE) is pleased to announce that Dr.
Xin Wang has been appointed Vice President and Director of Research and
Development for the company.
Carefree hydrogen firm hopes to be 'world beater' A Carefree company has big dreams on how its hydrogen technology can change the world, but it will need more than $100 million in funding just to build a demonstration plant to showcase its hydrogen production process. Alchemix Corp. has invented a proprietary technology called the HydroMax, which company officials say produces large quantities of hydrogen at a low cost. The hydrogen is not necessarily intended for fuel cells in next-generation automobiles, but for the production of ammonia needed for crop fertilizer and to be used in the refining and desulfurization of oil. Robert Horton, Alchemix chairman and chief executive, said the worldwide market for hydrogen is $60 billion, and a minute amount of that is in fuel cells for vehicles. He said his company's technology could potentially revolutionize the energy market by making hydrogen production very inexpensive -- something it's never been before. "We have the lowest-cost means of producing hydrogen on Earth," he said. "We have the ability to make it at a negative net cost." Alchemix's HydroMax process uses plentiful, low-value carbon feedstocks such as high sulfur coal, heavy oils and petroleum coke. By contrast, the most common production method for hydrogen today is steam methane reformation, which requires price-volatile natural gas as the feedstock, according to Horton. "Anything made of hydrocarbons can be reduced to carbons and made into feedstock," Horton said. That idea is at the heart of Alchemix's technology. By heating the hydrocarbons to 1,200 degrees centigrade, they can be reduced to carbons and made into the material from which hydrogen can be made. The company has raised $16 million from private investors to pursue the technology, but to take the next step, it needs a sizable chunk of change, Horton said. "Our next step is to build a $120 million demo plant with a two- or three-meter reactor in it," he said. "There's no doubting the technology works, but this will prove it can be made on a large scale." Horton said the company is in talks with a number of potential strategic partners, including some of the world's largest energy companies. He's said he's hopeful an alliance will be formed by the end of first-quarter 2004. "We're trying to find a partner in Canada because of how much crude oil they produce," Horton said. "And I expect if we find an industrial partner in Canada, we could get some government funds." With a technology this complex, it takes quite some time for the dream to come fruition, he admitted. But if it does? "Once hydrogen could be used for refineries here, the United States could be energy independent," Horton said. "We're talking about a world beater with this technology. It just takes time." Alchemix Corp.: www.alchemix.net. Startech Environmental Signs Contract for Production Of Starcell Hydrogen From Trash for U.S. Department of Energy Startech Environmental Corporation announced today that it has signed a contract valued at approximately $500,000 to produce and demonstrate a commercial-size StarCell(TM) system for the U.S. Department of Energy to produce hydrogen derived from processing waste through the Startech Plasma Converter(TM). The work will be performed in Startech's Technology Park facility in Bristol, Connecticut with the Company's StarCell partner, Media and Process Technology Inc. The program is scheduled for completion in six months. Waste will be put into the Startech Plasma Converter where it will be irreversibly destroyed and converted into Plasma Converter Gas (PCG)(TM). PCG is a clean synthesis gas mixture rich in hydrogen. The PCG will then be fed into the Company's StarCell system to separate the hydrogen from the PCG to produce StarCell Hydrogen(TM) for energy and power. The balance of the PCG, comprised principally of carbon-based molecules, can also be used for energy and power. Karl N. Hale, Startech VP of Engineering, said, "The support of the Department of Energy will help move our StarCell system much closer to full scale production and deployment. Our principal product, the Plasma Converter System, safely processes wastes of all sorts. In a manner of speaking, when StarCell is joined to the Plasma Converter, you can literally throw banana skins in one end and get hydrogen out the other." What is StarCell? StarCell is the Company's proprietary ceramic filtration system; it is not a fuel cell. It is a patented hydrogen-selective membrane filter that separates the hydrogen from the Plasma Converter Gas (PCG)(TM). PCG is the synthesis-fuel gas mixture, produced by the Plasma Converter when it processes waste. The Startech Plasma Converter(TM) destroys wastes by its pollution-free process of molecular dissociation during which it forms those wastes into valuable commercial products that include PCG (Plasma Converter Gas). It is a clean synthesis gas mixture, rich in hydrogen. PCG is a valuable syn-gas as it is, but StarCell increases its value by its ability to pull out the hydrogen. Beyond its use with the Plasma Converter, StarCell can also be used, stand alone, as a low cost method of separating hydrogen from the syn-gas produced by various coal gasification processes. StarCell Hydrogen can be used in the emerging "distributed power generation" (DG) markets as a low cost, pristine fuel to power automotive, stationary and portable fuel cells, as well as Internal Combustion Engine (ICE) vehicles. Why is hydrogen important? The use of hydrogen to power vehicles eliminates tail-pipe pollution and dependence on foreign oil. Used to produce stationary power, it will help clean up the air and will be the critical contributor to the development of a pollution-free "distributed power generation" industry. Hydrogen, the most pristine of all the fuels, when combined with oxygen to produce power results in only heat and H2O...water. It produces pollution-free electricity in fuel cells. Pound for pound, hydrogen contains more energy than any of the other fuels by far. In addition to the importance of the role it will play in clean power, it is also a basic material used in many industrial processes to make many of the products we use in our lives every day. How hydrogen is currently produced The Sun and stars are almost pure hydrogen. The paradox is that while hydrogen is the most abundant material in the universe, it is not readily accessible. Nearly all of the hydrogen produced today is made from fossil fuels, natural gas among them. These hydrocarbon fossil fuels consist primarily of molecules made up of carbon and hydrogen. The products of reformation are hydrogen gas and carbon-gas species. The hydrocarbon molecules are "reformed" with steam and/or oxygen in a complex thermo-chemical reformation process consisting of many steps. Hydrogen in your garbage can Mr. Hale, also said, "Most household and industrial wastes are packed with hydrogen. Even landfills can be mined so that the recovered trash can be processed by the Plasma Converter and StarCell to unlock an abundance of hydrogen. In the process of safely destroying wastes, the Plasma Converter System converts them into the hydrogen rich synthesis gas called PCG, at very little additional costs, in a process that is safer than environmental standards. This is a powerful commercial force for producing a low cost, renewable and pollution-free source of hydrogen. Converting renewable resources into hydrogen is an important goal of the 'Hydrogen Economy.' Waste is a valuable, ever-present and increasing renewable resource. The use of waste for hydrogen will decrease our dependence on dwindling reserves of fossil fuels. One key to achieving a Sustainable Society and meeting the energy needs of the new millennium is the widespread use of hydrogen as the primary energy source. The concept is called the Hydrogen Economy. In the Hydrogen Economy, hydrogen -- either liquefied or as a gas -- is the principal source of chemical energy, replacing natural gas, heating oil, gasoline and other petroleum products. Applications include electrical generation, industrial process heating, residential heating, transportation fuel, and many more. In this view, the demand for hydrogen will grow dramatically as we move forward. We believe the 'Plasma Converter-StarCell Process' will be helpful in opening the way to a Hydrogen Economy by increasing the availability of low-cost hydrogen to meet the expanding demand. It may be helpful to recognize that traditional hydrogen reformation processes require purchases of fossil fuel feed-stocks that impact the cost and availability of hydrogen. StarCell Hydrogen doesn't have that problem. Our Plasma Converter market is made up of customers who generate waste, and customers who process waste. Many wastes are excellent feed-stocks for hydrogen. Customers who generate waste don't have the feed-stock expense when PCG is produced; as a matter of fact, they save the money they would otherwise pay to others to accept their waste. Customers who process waste get paid for accepting and processing the waste of others, and also produce PCG. In either case, when the PCG is used in StarCell to produce hydrogen for sale, the customers can produce it at a much lower cost because they don't have the cost burden of fossil fuel feed-stock purchases. Our Plasma Converters are being marketed commercially now. In addition to the money gained processing waste in the Converter, our customers will also be able make money using StarCell to sell hydrogen." Web Site: http://www.startech.net Proton Energy Systems Launches HOGEN(R) H Series Hydrogen Generator Proton Energy Systems, Inc. (Nasdaq: PRTN),
a leader in on-site hydrogen generator products and regenerative fuel cell
technology, plans to unveil its HOGEN H Series hydrogen generators at the
POWER-GEN International convention in Las Vegas on December 9, 2003.
The latest and most advanced of Proton's generators, the H Series provides
customers with a safe, pure and reliable hydrogen supply. Japan Steel Works (JSW), one of the world's largest metal hydride manufacturers,
has awarded a contract to the Gas
Fuel cells could break through in stationary power Fuel cells are being widely touted as a clean power generation technology, and this technology looks particularly appropriate for medium-scale applications ? such as hospitals, hotels or even financial processing centres ? where both the electric power and by-product heat can be used. Here Steve Barrett, editor of the Fuel Cells Bulletin newsletter (www.fuelcellsbulletin.com), reports on the latest developments in this promising future industry. Fuel cells are attracting a great deal of interest at the moment, in a wide variety of applications across a huge range of system sizes. Their clean and quiet operation essentially combines hydrogen and oxygen to produce electricity and heat without combustion, with pure water as the ?waste? product (and perhaps a small amount of carbon dioxide (CO2) depending on the technology and the fuel gas). Most of the commercialisation activity around the world is for low-temperature fuel cells, such as PEM, direct methanol and alkaline. However, these technologies are generally better suited to small- and micro-scale applications, from vehicles to residential power systems, mobile generators and portable electronics such as laptop computers and mobile phones. While the fuel cell types that operate at lower temperatures tend to grab the headlines, it is the higher-temperature fuel cells that are more appropriate for combined heat and power (CHP) applications. This is because high-temperature fuel cells ? phosphoric acid (160F 220°C), molten carbonate (650°C) and solid oxide (800F 1000°C) ? produce a significant amount of useful thermal energy in addition to electric power. Funds for hydrogen fuel cell development-Edison Materials Center to get $3M The Edison Materials Technology Center will receive $3 million in federal money for hydrogen fuel cell development, the center announced Tuesday. The money comes from the Energy and Water Appropriations Act, and will help pay for research programs that focus on lowering the cost of hydrogen fuel cells and developing fuel cells that can act as back-up power generators for neighborhoods, businesses, recreational vehicles and tractor trailers. EMTEC President and CEO Frank Svet said the technology used in hydrogen fuel cells was developed more than 100 years ago, but their use is restricted because of the cost. The fuel cells produce quiet, efficient, pollutant-free energy, but cost too much for most users. The center, a Dayton-based non-profit, collaborates with private businesses, government agencies and universities on research that helps bring technologies like fuel cells to the marketplace. Svet said the federal money gives the center the opportunity to lead fuel cell development in the coming years. ‘‘It is clear that our energy initiatives enjoy the support of the U.S. Department of Energy and Congress," Svet said. "This support will lead to even greater opportunities for Ohio as fuel cell developers and stakeholders throughout Ohio recognize EMTEC's leadership as the 'go to organization' for fuel cells as the development of the hydrogen economy begins to unfold."
MTI Microfuel Cells Files 50th Patent Application MTI MicroFuel Cells Inc. (MTI Micro), a subsidiary of Mechanical Technology Inc. (Nasdaq: MKTY - News), today announced the filing of its 50th U.S. patent application. The Company's intention is to commercialize direct methanol fuel cells (DMFCs) as a future power source for portable electronics in commercial and military markets. MTI Micro has previously announced plans to ship its first product in the fourth quarter of 2004. "These patent applications are reflective of the very significant technical progress we have made in developing our DMFC system over the past two years," said Dr. Shimshon Gottesfeld, chief technology officer of MTI Micro. "We believe that we have developed a proprietary system that is unique in the field and offers real advantages for manufacturing." Of the 50 U.S. patent applications filed by MTI Micro to date, 6 patents already have issued. Thirteen international patent applications have also been filed. MTI Micro has developed an extensive portfolio of patent applications in areas including fuel cell systems, components, controls, manufacturing processes, system packaging, and fuel refill and packaging. In the area of fuel cell systems, MTI Micro has filed patent applications for fuel cell systems design, modifications and improvements to the membrane electrolyte assembly, alternative diffusion layers, and materials. In addition, MTI Micro has filed patent applications for certain components important to the overall system including a highly efficient DC-to-DC converter, the design of lightweight packaging and controls to optimize operation of the system in varying environmental conditions. MTI Micro's technological advancements allow 100% methanol to feed directly into the anode side of the fuel cell, minimizing the need for pumps and complicated internal circulation mechanisms required by typical DMFC systems, and obtaining the maximum energy possible out of the fuel. This summer, MTI Micro's laboratory DMFC systems, operating on 100% methanol, achieved an energy density of 250 Wh/l, which is comparable to that of a typical prismatic Lithium ion battery used to power portable electronic devices such as cell phones. The lab systems also achieved 200 Wh/kg on a weight basis, which surpasses a typical prismatic Lithium ion battery. MTI Micro also extracted 1Wh/cc from methanol and 1.25 Wh/g on a weight basis from lab systems. To put this in perspective, MTI Micro's current technology -- at par with lithium-ion batteries on energy density -- would allow for one small methanol cartridge or fuel refill to replace two or three back-up lithium-ion batteries, saving space and weight. MTI Micro's unique and simple system design is intended to permit a lower part count product, a more reliable system, and a less expensive product to manufacture. "MTI Micro has always focused significant efforts on the strategic development of a sustainable IP portfolio, both to protect our technical advancements and with the intention to establish significant blocking rights with respect to competition," said Dr. William P. Acker, president and CEO of MTI Micro. "We believe our proprietary technology can provide the higher energy content necessary to operate present and future generations of the portable electronics people increasingly want and use."
Palcan Fuel Cells Announces A Joint Venture To Substantially Lower The Cost Of Fuel Cells And Create Significant Revenue Palcan Fuel Cells Ltd. (TSX Venture:PC) today announced that it has signed a joint venture agreement with Shanghai Mingliang Plastic Co. Ltd., a private manufacturing company based in the Shanghai Pundong economic region. The joint venture is to establish a commercial manufacturing facility in Shanghai using Palcan's proprietary technology, to produce PEM fuel cell stacks for the global fuel cell marketplace. Palcan will have full managerial control of the facility, which is expected to be operational within six months. Palcan will hold a 49% share while its joint venture partner; Shanghai Mingliang Plastic Co. Ltd. will hold a 51% share in the JV. Palcan obtains its 49% share through a combination of (a) the assignment of its manufacturing technology on a non-exclusive basis representing a 30% shareholding, and (b) for a cash investment of US$450,000 for the remaining 19%, the timing of which is at Palcan's election. Palcan will appoint two of the five directors on the JV board. When fully operational, the manufacturing facility will manufacture 20,000 PEM Fuel Cell Stacks units per year. The units will be sold at substantially less than the current world market prices. Given the cost of manufacturing in China and the economies of scale, Palcan looks forward to an excellent return on its investment. "This joint venture is a milestone in the history of Palcan. The manufacturing of our PEM fuel cell stacks for sale worldwide places us squarely at the forefront of fuel cell stack technology for the .05 kW to 5 kW market. This joint venture is a strong beginning to our commercialization and we expect to be expanding our manufacturing output well beyond 20,000 units annually as the market develops" stated Palcan Fuel Cells President & CEO Dr. John Shen. "Our facility in China will give us a strong position to exploit the Chinese market which is potentially immense as fuel cell costs are substantially reduced." As an environmentally responsible Company Palcan believes it has a responsibility to its local community. Therefore, Palcan is pleased to announce the Company is a proud sponsor of the Illusions, Magic and Miracles put on behalf of the Burnaby, Delta, New Westminster and Surrey Fire Fighters Charitable Fund. For more information about this charitable event, please visit www.magicnmiracles.com.
Plug Power Inc. (Nasdaq: PLUG) announced today a new product line for the on-site hydrogen generation market. The GenSite(TM) product line is designed to provide reliable, economical on-site generation of pure compressed hydrogen gas for industrial applications such as generator cooling and metals processing. "We believe the GenSite(TM) product line offers a compelling economic value proposition when compared to the current cost associated with bottled hydrogen distribution and on-site electrolyzers," said Mark Sperry, Plug Power Chief Marketing Officer. "Hydrogen consumers require a reliable, easy to use, modular and scalable source of industrial grade hydrogen gas, the GenSite(TM) line shows Plug Power's capability and resolve to deliver on these needs." The GenSite(TM) product line operates on natural gas and provides 99.95 percent pure compressed hydrogen gas. The new product line leverages Plug Power's core reformer technology that has been embedded in more than 380 GenSys(TM) fuel cell systems, which have operated for approximately one million hours during the past three years. Plug Power, a leader in system integration, will incorporate the reformer with a compressor and purifier to complete the overall system design. The Company intends to engage both users of industrial hydrogen gas and industrial gas suppliers through demonstration units starting in the summer of 2004. A 7 Nm3/hr (247 cubic feet/hour) GenSite(TM) unit will be on display in the Plug Power booth (#7737) at POWER-GEN in Las Vegas, Nev. from Tuesday, Dec. 9 through Thursday, Dec. 11. To learn more please visit http://www.plugpower.com and proceed to the event section.
Request for proposal - PEM Stacks for Fuelcell Locomotive Vehicle Projects has issued a request for proposal (RFP) to provide fuelcell stacks to a project to develop and demonstrate a fuelcell locomotive for military and commercial railway applications. Full details of the RFP are available here. The vehicle, a 109 metric-ton, 1.2 MW locomotive, is being developed by an international consortium led by Vehicle Projects LLC of Denver, Colorado, USA. The selected fuelcell stacks shall be of the PEM (Proton Exchange Membrane) type with gross electrical power of 1,200 kW operating on hydrogen (source TBD). The expectation is that the powerplant will consist of approximately 6 to 12 modules with each module having a number of smaller fuelcell stacks. Delivery shall be in the second quarter 2005. Bid proposals shall include the following: (a) technical data as specified in the full RFP, (b) company background and capabilities, (c) schedule of stack delivery, (d) number of modules required to provide 1,200 kW gross electrical power, (e) number of stacks per module, (f) performance test data of proposed stacks, (g) manufacturer’s warranty, and (h) price in US$ delivered to Los Angeles, CA, USA, Incoterms 2000 DDP. The deadline for bid submission is 5:00 PM MST Monday, 15 December 2003.
Consult the RFP for submission procedures. For questions, contact David
L. Barnes, Vehicle Projects LLC, 621 Seventeenth Street, Suite 2131,
Denver, CO 80293, USA, Tel +1 303 296 4218, Fax +1 303 296 4219.
New Fuel Cell Power Plant Dedicated at Yale University Yale University, state and local officials and FuelCell Energy, Inc. today dedicated Connecticut's first high-efficiency fuel cell power plant at the Environmental Science Center near Yale's Peabody Museum.
"As a leader in environmental research and education, Yale is committed to operating its campus in an environmentally sound manner," said President Richard C. Levin. "We are pleased to work with the state in adding fuel cell technology developed in Connecticut to our efforts to meet our energy needs as efficiently and cleanly as possible." The 250 kilowatt fuel cell will provide approximately 25 percent of the building's electricity needs, with the heat being used primarily to maintain tight temperature and humidity controls at the facility. Connecticut Governor John Rowland said that Connecticut's leadership in fuel cell technology is unsurpassed. "Fuel cells are a growing part of the industrial economy in Connecticut and projects like this help bring greater awareness of the benefits of fuel cells to our environment as well as to the stability and reliability of the electric power system here in Connecticut and the United States."
The Connecticut Clean Energy Fund purchased the fuel cell power plant last year for use in the state, and the Connecticut Siting Council approved the Yale University location in December 2002. The Clean Energy Fund invests in enterprises and initiatives that help promote the development, production and use of energy from clean and renewable sources. "Connecticut's leadership role in providing for a cleaner energy future
is greatly enhanced and advanced by projects such as this," said Arthur
Diedrick, chairman of the Clean Energy Fund. "We are pleased we can help
to provide funding that helps pushes products like fuel cells out in the
commercial marketplace where they can benefit the citizens of Connecticut
and beyond." "The location at the Yale Peabody Museum is very appropriate
because the Environmental Science Center can effectively use both the electrical
and heat output of the plant. It is further demonstration of universities
as an ideal application for our Direct FuelCell products," said Jerry Leitman,
chairman and CEO of FuelCell Energy. "Our fuel cells are operating all
over the world and we are thrilled to have a customer site in our home
state."
DaimlerChrysler
delivers its first fuel-cell passenger car to Tokyo Gas
"We think it is extremely significant that we were able to deliver our world first F-Cell... to a leading firm in Japan, Tokyo Gas Co Ltd, which is actively promoting the use of hydrogen energy as the important social infrastructure," DaimlerChrysler Japan president Hans Tempel said in a statement. The car, the F-Cell, based on the Mercedes-Benz A-class, follows DaimlerChrysler's release of fuel cell commercial vehicles earlier this year in its drive to explore the possibilities of the eco-friendly technology. DaimlerChrysler will deliver a total of 60 F-Cells in Japan, Germany, the US and Singapore through 2004 to such entities as the US Environmental Protection Agency and Japanese tyremaker Bridgestone Corp. Last year Japan's Toyota Motor and Honda Motor became the world's first automakers to begin leasing fuel cell cars powered by electricity generated from oxygen and pressurized hydrogen gas. Tokyo Gas, which owns a hydrogen station to supply fuel to the fuel-cell vehicles, already leases another fuel-cell vehicle from Toyota. Tokyo Gas said it will use the cars to raise the public awareness about fuel-cell technology.
Kettering University Researchers Discover New Way to Produce Nanotubes Nanotubes have thermal conductivity better than diamonds, electro-conductivity better than copper, and can withstand very high temperatures. Researchers at Kettering University have discovered a different method for producing nanotubes, which is one of the U.S. government's best-funded technology areas. Nanotubes are tiny (ranging from 0.8 nanometers to 300 nanometers) structures capable of great things. They have strong planar carbon bonds, high tensile strength, are light and have lots of surface area. Nanotubes can also function as either conductors or semiconductors in electronic circuitry. The Kettering team's procedure for creating nanotubes is "actually a simpler way of doing it than had previously been done," said Bahram Roughani, associate professor of Applied Physics. Established methods include arc discharge, laser ablation or pulsed laser vaporization (PLV), chemical vapor deposition and gas phase processes, such as high-pressure carbon monoxide (HiPCO). Roughani and David Parker, professor of Applied Physics and director of Applied Optics, started the project with students John Henry, Flint, Mich.; Paul Thomas, Tyler, Texas; and Nadia Van Huffel, Grand Rapids, Mich. The Kettering team used a laser but without special environments, just atmospheric pressure at room temperature and silicon carbide wafers, which they exposed to the laser. Most other methods use graphite as a starting substance. To verify their find, they used Raman Spectroscopy, an interaction between laser light and a material that shows the frequency at which the material vibrates. Nanotube research has potential market applications exceeding $230 million within five years. Potential applications include: Alternative energy research - Fuel cells need to store large amounts
of hydrogen, which requires large amounts of surface area. Hollow carbon
nanotubes have large amounts of external and internal surface area.
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