fuel cell powered bicycle tested

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NEWS Fuel cell powered bicycle tested Manhattan Scientifics has completed initial development and testing of its "Hydrocycle", a fuel cell powered prototype bicycle that uses the company's unique and proprietary mid• range power technology developed by its NovArs unit in Passau, Germany. The company also said that it had opened discussions with industry leaders in the powered bicycle and scooter segments about possible applications, especially in Asia. The unique design of the NovArs mid-range PEM fuel cell technology is based on the use of advanced composite materials anel sealing technology to minimise size and weight. This makes it potentially ideal as a power source for portable electronic equipment or lightweight, personal trans• portation applications. The cylindrical-shaped fuel cell stack which powers the Hydrocycle weighs only 780 g, and delivers 670 W of power to a hub motor. The hydrogen fuel is contained in a 2 I carbon-fibre reinforced pressure vessel, and provides a driving range of 70-100 km at a top speed of 30 km/h. For more information, contact: Manhattan Scientifics l(lc, Olympic Tower, 641 Fifth Avenue, Suite 36F, New York, NY 10022, USA. Tel: +1212752 0505, Fax: +1 212 752 0077. Low-temperature SOFe developed A Japanese research group has reported a solid oxide fuel cell operating at temperatures as low as 350°C, using samarium-doped ceria as the electrolyte. This is considerably lower than previously reported cells running on natural gas, and offers a significant opportunity for cheaper SOFC systems, which do not need external reformers but can still run on hydrocarbon fuels. In the 16 June issue of Science, Takashi Hibino of the National Industrial Research Institute of Nagoya and colleagues at Nagoya University describe a unique SOFC design in which the hydrocarbons and air are pumped into a single chamber, where they surround the electrodes and an electrolyte membrane wafer made from cerium oxide tinged with samarium. Ethane, methane and propane were all tested and worked efficiently, and the team claims that liquid petroleum gas or butane would work just as well. Hibino's team found that their fuel cell works well at around 500°e. In addition to deterring hydrocarbon build-up on the anode, the samarium-doped cerium oxide membrane at such temperatures is a far better oxygen-ion conductor than the standard yttria-stabilised zirconia (YSZ) membrane. The lower operating temperature also reduces heat Stress on the apparatus itself, which means engineers should be able to use steel rather than expensive, heat-resistant alloys. For more information, contact: Dr Takashi Hibino, Material Structure Design Laboratory, Structural Formation Process Department, National Industrial Research Institute of Nagoya, 1-1 Hirate-cho, Kita-ku, Nagoya 462-8510, Japan. Tel: +81 52911 2111, Fax: +81 52 916 2802, Email: [email protected] Teledyne, Humboldt State link up The Energy Systems unit of Teledyne Technologies has completed a strategic agreement with Humboldt State University in California to produce, use and sell fuel cell systems based on technology developed at the university's renowned Schatz Energy Research Center. "This agreement is the result of a long and mutually beneficial relationship we have enjoyed with [director] Dr Lehman and his team at the Schatz Energy Research Center," said Bamdad Bahar, general manager of Teledyne Energy Systems. "This proven fuel cell technology has thousands of hours of documented real-life performance in the field." Teledyne Energy Systems provides commercial power system solutions within the micro• generation power range for on-site, continuous-duty, prime-power applications. The agreement should allow Teledyne Energy Systems to greatly expand its business base by driving down the cost for remote prime-power systems. The Humboldt State research laboratory recently designed and produced a fuel cell generator that helps bring reliable telephone service to remote Yurok tribal lands, by powering a telecommunications station on a rugged mountaintop in Redwood National Park. For more information, contact: Teledyne Energy Systems, 10707 Gilroy Road, Hunt Valley, MD 21031-1325, USA.Tel:+14107718600, Fax:+1410 771 8620. Or contact: Schatz Energy Research Center, Humboldt State University. Arcata, CA 95521-8299, USA. Tel: +1 7078264345, Fax: +1 7078264347. Power management module order Calgary-based Sustainable Energy Technologies has received a purchase order from IdaTech Corporation of Bend, Oregon - formerly Northwest Power Systems for a power management module which will condition and distribute power for IdaTech's stationary fuel cell power generation system. The companies have been collaborating for several months to develop a fully integrated power management system that will meet the requirements ofIdaTech's fuel cell and fuel reformer. Delivery of the power management module for alpha testing with the IdaTech system was scheduled for the end of July. For more information, contact: Sustainable Energy Technologies Ltd, Suite 850, 1520 4th Street SW, Calgary, Alberta T2R OY4, Canada. Tel: + 1 403 508 7176, Fax: +1 403 205 2509. Or contact: IdaTech, 924 SE Wilson Avenue, Suite F. Bend, OR 97702, USA. Tel: +15413833390,Fax:+15413833439. TexasA&M licenses Reliant Energy The Texas A&M University System has granted Houston• based Reliant Energy exclusive rights to develop and market important improvements in PEM fuel cell technology. This new technology was developed by the Center for Electrochemical Systems & Hydrogen Research. The agreement grants Reliant Energy the exc1 usive right to assess and develop the technology's commercial potential for a variety of applications including distributed generation, pOrtable power and transportation. The fuel cell developed by the CESHR has several unique features that may provide a cost advantage by allowing it to be mass-produced. The cell, invented by centre director Dr A. John Appleby, is designed to use common and previously overlooked materials in the manufacturing process, and to operate at low temperatures and pressures. The design will allow units to range in size from 7.5 kW - the power requirement for the average Houston home - to 150 k\v, which would power light commercial and industrial customers. For more information, contact: Center for Electrochemical Systems & Hydrogen Research, Texas Engineering Experiment Station, 238 Wisenbaker Engineering Research Center, Texas A&M University, College Station, TX 77843-3402, USA. Tel: +1 409 845 8281, Fax: +14098459287. Or contact: Reliant Energy, 1111 Louisiana, Houston, TX 77002, USA. Tel: +1 713 207 3000, Fax: +1 713 207 3169. CD -----------------------------------------:F-ue":"l 2-3

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Page 1: Fuel cell powered bicycle tested

NEWS

Fuel cell poweredbicycle testedManhattan Scientifics hascompleted initial developmentand testing of its "Hydrocycle", afuel cell powered prototypebicycle that uses the company's

unique and proprietary mid•range power technologydeveloped by its NovArs unit inPassau, Germany. The companyalso said that it had openeddiscussions with industry leadersin the powered bicycle andscooter segments about possibleapplications, especially in Asia.

The unique design of theNovArs mid-range PEM fuel celltechnology is based on the use ofadvanced composite materials anelsealing technology to minimise sizeand weight. This makes itpotentially ideal as a power sourcefor portable electronic equipmentor lightweight, personal trans•portation applications.

The cylindrical-shaped fuel cellstack which powers the Hydrocycleweighs only 780 g, and delivers670 W ofpower to a hub motor. Thehydrogen fuel is contained in a 2 Icarbon-fibre reinforced pressurevessel, and provides a driving range of70-100 km at a top speed of30 km/h.

For more information, contact:Manhattan Scientifics l(lc, OlympicTower, 641 Fifth Avenue, Suite 36F, NewYork, NY 10022, USA. Tel: +12127520505, Fax: +1 212 752 0077.

Low-temperatureSOFe developedA Japanese research group hasreported a solid oxide fuel celloperating at temperatures as lowas 350°C, using samarium-dopedceria as the electrolyte. This isconsiderably lower than

previously reported cells runningon natural gas, and offers a

significant opportunity for

cheaper SOFC systems, which do

not need external reformers but

can still run on hydrocarbon fuels.

In the 16 June issue of Science,

Takashi Hibino of the NationalIndustrial Research Institute of

Nagoya and colleagues at NagoyaUniversity describe a unique SOFC

design in which the hydrocarbons

and air are pumped into a single

chamber, where they surround the

electrodes and an electrolytemembrane wafer made from cerium

oxide tinged with samarium. Ethane,

methane and propane were all tested

and worked efficiently, and the team

claims that liquid petroleum gas or

butane would work just as well.

Hibino's team found that theirfuel cell works well at around

500°e. In addition to deterring

hydrocarbon build-up on the anode,

the samarium-doped cerium oxide

membrane at such temperatures is a

far better oxygen-ion conductor

than the standard yttria-stabilised

zirconia (YSZ) membrane. The

lower operating temperature also

reduces heat Stress on the apparatusitself, which means engineers should

be able to use steel rather than

expensive, heat-resistant alloys.

For more information, contact: DrTakashi Hibino, Material StructureDesign Laboratory, Structural FormationProcess Department, National IndustrialResearch Institute of Nagoya, 1-1Hirate-cho, Kita-ku, Nagoya 462-8510,Japan. Tel: +81 52911 2111, Fax: +8152 916 2802, Email: [email protected]

Teledyne,Humboldt Statelink upThe Energy Systems unit of

Teledyne Technologies has

completed a strategic agreementwith Humboldt State University

in California to produce, use and

sell fuel cell systems based on

technology developed at the

university's renowned Schatz

Energy Research Center.

"This agreement is the result of a

long and mutually beneficialrelationship we have enjoyed with

[director] Dr Lehman and his team

at the Schatz Energy Research

Center," said Bamdad Bahar,

general manager of TeledyneEnergy Systems. "This proven fuelcell technology has thousands ofhours of documented real-lifeperformance in the field."

Teledyne Energy Systems

provides commercial power systemsolutions within the micro•generation power range for on-site,continuous-duty, prime-powerapplications. The agreement shouldallow Teledyne Energy Systems to

greatly expand its business base bydriving down the cost for remoteprime-power systems.

The Humboldt State researchlaboratory recently designed and

produced a fuel cell generator thathelps bring reliable telephone serviceto remote Yurok tribal lands, bypowering a telecommunications

station on a rugged mountaintop inRedwood National Park.

For more information, contact:Teledyne Energy Systems, 10707 GilroyRoad, Hunt Valley, MD 21031-1325,USA.Tel:+14107718600, Fax:+1410771 8620.

Or contact: Schatz Energy ResearchCenter, Humboldt State University.Arcata, CA 95521-8299, USA. Tel: +17078264345, Fax: +1 7078264347.

Powermanagementmodule orderCalgary-based Sustainable

Energy Technologies has receiveda purchase order from IdaTech

Corporation of Bend, Oregon -

formerly Northwest Power

Systems for a power

management module which will

condition and distribute power

for IdaTech's stationary fuel cell

power generation system.

The companies have beencollaborating for several months to

develop a fully integrated power

management system that will meet

the requirements ofIdaTech's fuel

cell and fuel reformer. Delivery of

the power management modulefor alpha testing with the IdaTech

system was scheduled for the end

ofJuly.

For more information, contact:Sustainable Energy Technologies Ltd,Suite 850, 1520 4th Street SW, Calgary,Alberta T2R OY4, Canada. Tel: + 1 403508 7176, Fax: +1 403 205 2509.

Or contact: IdaTech, 924 SE WilsonAvenue, Suite F. Bend, OR 97702, USA. Tel:+15413833390,Fax:+15413833439.

TexasA&Mlicenses ReliantEnergyThe Texas A&M UniversitySystem has granted Houston•based Reliant Energy exclusiverights to develop and market

important improvements in PEMfuel cell technology.

This new technology wasdeveloped by the Center for

Electrochemical Systems &

Hydrogen Research. Theagreement grants Reliant Energythe exc1usive right to assess and

develop the technology's

commercial potential for a varietyof applications includingdistributed generation, pOrtablepower and transportation.

The fuel cell developed by the

CESHR has several unique featuresthat may provide a cost advantage by

allowing it to be mass-produced. Thecell, invented by centre director Dr

A. John Appleby, is designed to use

common and previously overlooked

materials in the manufacturing

process, and to operate at low

temperatures and pressures. The

design will allow units to range in size

from 7.5 kW - the powerrequirement for the average Houston

home - to 150 k\v, which wouldpower light commercial andindustrial customers.

For more information, contact:Center for Electrochemical Systems &Hydrogen Research, Texas EngineeringExperiment Station, 238 WisenbakerEngineering Research Center, TexasA&M University, College Station, TX77843-3402, USA. Tel: +1 409 8458281, Fax: +14098459287.

Or contact: Reliant Energy, 1111Louisiana, Houston, TX 77002, USA. Tel:+1 713 207 3000, Fax: +1 713 207 3169.

CD -----------------------------------------:F-ue":"l~Ce"::lI-s:"Bu"::lI~et":"in~N":"o-.2-3