Creating
Hydrogen Researchers worldwide are
discovering new ways to bring down the cost of producing hydrogen.
Wind hydrogen is now cheaper than gasoline!
"This is a proof-of-concept system that
is very inefficient. But ultimately, catalytic systems with 10 to 15
percent solar conversion efficiency might be achievable," says
Thomas E. Mallouk, the DuPont Professor of Materials Chemistry and
Physics. "If this could be realized, water photolysis would provide a
clean source of hydrogen fuel from water and sunlight."
With hydrogen production currently
dominated by the petrochemical industry, it's nice to see some simple
carbon neutral solutions to producing hydrogen, which you can make
yourself.
more
"This report is one in a series of emergency
technology assessments sponsored by the Federal Emergency Management
Agency (FEMA). The purpose of this report is to develop detailed,
illustrated instructions for the fabrication, and operation of a biomass
gasifier unit (that is, a producer gas generator, also called a wood gas
generator) which is capable of providing emergency fuel for vehicles,
such as tractors and trucks, in the event that normal petroleum sources
were severely disrupted for an extended period of time. These
instructions are prepared in the format of a manual for use by any
mechanic who is reasonably proficient in metal fabrication or engine
repair."
-- U.S. Defense Technical Information Center
Construction of a Simplified Wood Gas Generator for Fueling Internal
Combustion Engines in a Petroleum Emergency
H. LaFontaine, Biomass Energy Foundation, lnc. Miami, Florida and F. P.
Zimmerman, Oak Ridge National laboratory, Energy Division FEMA
lnteragency Agreement Number: EMW-84-E-1737 Work Unit: 3521 D for:
Federal Emergency Management Agency Washington, D.C. 20472 "This report
has been reviewed in the Federal Emergency Management Agency and
approved for publication. Approval does not signify that the contents
necessarily reflect the views and policies of the Federal Emergency
Management Agency." Date Published: March 1989 APPROVED FOR PUBLIC
RELEASE: DISTRIBUTION UNLIMITED Prepared by: Oak Ridge National
laboratory Oak Ridge, Tennessee 37831-6285 for the U.S. Department of
Energy
Denmark's Wind-Hydrogen Projects
Fuel Cell Today (UK)
February 4, 2008
This summer, six new hydrogen plants
will be opened in western Jutland, all of which will use renewable energy
such as wind to produce hydrogen.
Northern Jutland Invests Millions in H2 and Fuel Cell Projects
Ministry of Foreign Affairs of Denmark
December 20, 2007 Hydrogen technology
is an innovation and enterprise focus area in Jutland, with the
development of a "Hydrogen Valley" cluster centred around the town of
Hobro, which is centrally located between three of Denmark's leading
centres for hydrogen and fuel cell research as well as bioenergy
research – the universities in Aalborg and Ĺrhus, and the Centre for
Danish Agricultural Sciences near Viborg.
Catching the WindJim Motavalli
EMagazine.com
Jan/Feb 2005
Claus Moller of the Danish Wind Energy Association says that
the concept of hydrogen from wind is being actively pursued in Denmark,
with small-scale demonstration projects and long-term feasibility
studies underway in research institutes. If economics of scale come into
play to dramatically reduce the cost of wind-powered hydrogen
electrolyzers, reports a paper by Harry Braun of the Hydrogen Political
Action Committee posted on EV World, then electricity could be generated
at a cost of one cent per kilowatt-hour, resulting in liquid hydrogen
produced for the same cost as gasoline at $1.95 a gallon. Braun calls
for 12 million wind systems to be mass-produced and installed within 24
months and coupled to an interstate hydrogen pipeline. “It is possible
for the U.S. to be energy independent, with a pollution-free and
inexhaustible energy resource within five to 10 years,” he says.
Artist's
concept of full-scale NASA Lunar Power Plant
Images courtesy of NASA
"On the moon, you would start with a tank of water. You'd use the solar
arrays to make hydrogen and oxygen during the day, then use the hydrogen
and oxygen to make electricity during the night when there's no sun.
Ideally, if nothing broke and nothing wore out, it could run forever
without being refueled." David Bents, NASA Glenn Research Center
Schematic of closed-loop lunar power system
Artist's concept of basic array.
Rengenerative fuel cells at NASA.
NASA's Glenn Research Center in
Cleveland is leading an effort to develop systems that could store energy
for use during the long, frigid lunar nights. The solution may be a fuel
cell system that originally was designed for a high-altitude
solar-electric airplane. ...."Even though it was originally designed for
an airplane, the system has given us a leg up," said Ann Over, chief of
Glenn's Advanced Capabilities Project Office. "The knowledge we gained
will feed directly into our lunar regenerative fuel cell technology
program." Glenn plans to begin work in 2008 on a prototype regenerative
fuel cell system for the lunar outpost.
more
AeroVironment HELIOS
In-flight breakup of HELIOS - June 2003
H2 Bus has finished the pilot version
of its hydrogen-fuelled bus, Napi Gazdaság learnt. The bus was made for
Quantum Energy, which signed a letter of intent with the government to
make hydrogen fuel available in Hungary. "Quantum Energy is planning
hydrogen-producing wind power plants for use in mass urban transport," CEO
László Molnár said. "This will help to reduce city pollution and aid the
utilisation of the notoriously erratic wind power," Molnár explained.
BREAKTHROUGH!
HAS PENN STATE'S BRUCE LOGAN SUDDENLY SOLVED HUMANITY'S ENERGY CONUNDRUM? DOES HIS RESEARCH MARK THE END FOR
THE GREAT ETHANOL FRAUD?
Traditional ethanol production
requires either hydrocarbons from fossil fuels or the fermentation of
sugary plants. This necessitates sugary crops such as corn or sugarcane to
be grown solely for fuel, not for human use. Bacteria-produced ethanol and
enzymatic produced ethanol are both being researched, but they have been
very costly, and have relatively low efficiencies.
Logan and his team found that with certain
configurations nearly all the hydrogen in the source material could be
converted into hydrogen gas. He foresees this allowing for the process to
be adopted on a large scale for easy hydrogen production.
Even with the initial electrical jolt, energy lost to
processing the hydrogen and other inputs, the overall efficiency of the
system is 80 percent in the vinegar driven system. This is far better than
any existing process for ethanol generation. It also handily beats
electrolysis generation, being between three to ten times more efficient.
more
In tests the system produced hydrogen
that if burned would make between two and six times the amount of energy
put in as electric power. By comparison hydrogen extracted from water can
only pay back 50 to 70 per cent of the energy used to extract it. "It is
surprising that such high hydrogen yields can so readily be obtained,"
says Patrick Hallenbeck of the University of Montreal in Canada. "The net
energy yield appears much higher than what people are getting in other
biofuel production processes – bioethanol, for example," he adds.
more
"Our country does not have a
long-term, national policy in place to promote
renewable energy development." Randall Swisher, AWEA executive director
U.S. Wind Industry Blowing Past Previous Development Records RenewableEnergyAccess.com November 8, 2007
The U.S. wind industry is on track to
complete roughly 4,000 megawatts (MW) of wind projects in 2007, shattering
the 2006 record of 2,454 MW and solidifying wind as a major source of new
power in the country today, according to a new market report from the
American Wind Energy Association (AWEA).
BREAKTHROUGH
Self-aligned, vertically oriented
titanium iron oxide nanotube arrays demonstrate the ability to split water
under natural sunlight.
"As I see it, we are a couple of
problems away from having something that will revolutionize the field of
hydrogen generation by use of solar energy." Craig A. Grimes, Associate Professor
of Electrical Engineering, Penn State
The prospect for the wide spread use
of hydrogen as a portable energy carrier is dependent on finding a clean,
renewable method of production. At Penn State University, a research group
headed by professor of electrical engineering Craig Grimes in the
Materials Research Institute is "only a couple of problems away" from
developing an inexpensive and easily scalable technique for water
photoelectrolysis - the splitting of water into hydrogen and oxygen using
light energy - that could help power the proposed hydrogen economy.
...Previously, the Penn State scientists had reported the
development of titania nanotube arrays with a photoconversion efficiency
of 16.5% under ultraviolet light. Titanium oxide (TiO2), which is commonly
used in white paints and sunscreens, has excellent charge-transfer
properties and corrosion stability, making it a likely candidate for cheap
and long lasting solar cells. However, as ultraviolet light contains only
about 5% of the solar spectrum energy, the researchers needed to finds a
means to move the materials band gap into the visible spectrum.
They speculated that by doping the TiO2 film with a form of
iron called hematite, a low band gap semiconductor material, they could
capture a much larger portion of the solar spectrum. The researchers
created Ti-Fe metal films by sputtered titanium and iron targets on
fluorine-doped tin oxide coated glass substrates. The films were anodized
in an ethylene glycol solution and then crystallized by oxygen annealing
for 2 hours. They studied a variety of films of differing thicknesses and
varying iron content. In this paper they report a photocurrent of 2 mA/cm2,
and a photoconversion rate of 1.5%, the second highest rate achieved with
an iron oxide related material.
The team is now looking into optimizing the nanotube
architecture to overcome the low electron-hole mobility of iron. By
reducing the wall thickness of the Ti-Fe-O nanotubes to correspond to the
hole diffusion length of iron which is around 4nm, the researchers hope to
reach an efficiency closer to the 12.9% theoretical maximum for materials
with the band gap of hematite.
more
“Using Minnesota
wind to make nitrogen fertilizer for farmers could transform agriculture, wind
and hydrogen economics overnight. The fact that this could reduce input costs
for farmers and boost wind development without the need for transmission lines
or power purchase agreements makes this approach a potential grand slam." Rolf Nordstrom, Director
Great Plains Institute’s Upper Midwest Hydrogen Initiative
University of Minnesota to Develop Wind to Hydrogen
to Nitrogen Pilot Project
Iowa Farmer Today (IA)
August 2, 2006
White Plains: Hydrogen Fuel Vehicles Forbes/AP
August 20, 2007 The hydrogen fuel depot will
extract hydrogen from water, producing
what would be the equivalent of up to about 40 gallons of gas a day.
Bismarck, N.D. -- Dedication ceremonies for a
Wind-to-Hydrogen project have been set for Saturday, July 21 at 2:30 p.m.
The event will be held at the project site located at North Dakota State
University's (NDSU) North Central Research Extension Center, one mile
south of Minot, N.D. on U.S. Highway 83. The public is invited to attend
and enjoy refreshments, provided by Verendrye Electric Cooperative. The
hydrogen fueling site is the first of its kind in the nation. A short
program will include a speech by U.S. Senator Byron Dorgan
and speakers from electric cooperatives and industry
sponsors.
Curtis Jabs, senior legislative representative for Basin
Electric Power Cooperative, said that the Wind-to-Hydrogen project was a
joint effort between a consortium of energy companies and research
institutions in North Dakota and made viable through funding arranged by
Sen. Dorgan through the U.S. Department of Energy's Energy Efficiency and
Renewable Energy division.
"Senator Dorgan has been a huge supporter of wind and
developing hydrogen as a fuel of the future," Jabs said. "We're thankful
to have him involved, as well as our many other project sponsors and
participants."
The primary consortium members include Basin Electric,
Verendrye Electric Cooperative, Velva; Central Power Electric Cooperative,
Minot; NDSU North Central Research Extension Center; the National Rural
Electric Cooperative Association's Cooperative Research Network; and the
Energy and Environmental Research Center, Grand Forks, N.D.
The $2-million project just received the final component last
month, a hydrogen electrolyzer delivered from Belgium. Now the research
begins to turn variable wind energy into a firm, value-added energy source
that can be stored and used as needed in the form of hydrogen fuel.
The wind energy will come from Basin Electric's wind
resources at Minot, Edgeley/Kulm and Wilton, N.D. As electricity is
produced by wind turbines, it will be dynamically scheduled over the local
transmission system to the project site where it will be used in an
electrolyzer that separates water into oxygen and hydrogen through
electrolysis. The hydrogen produced will primarily be used to refuel
hydrogen-powered vehicles and a converted tractor, which will operate on a
blend of hydrogen and diesel fuel. more
Converting Wind into Hydrogen Bismark Tribune (ND) May 8,
2007 The modified tractor is
part of a project involving Bismarck-based Basin Electric Power
Cooperative to take wind energy, from two turbines near Minot, and
convert it to hydrogen. The project was made possible by $1.5 million in
federal grants. Early this summer, project collaborators will install
equipment at the NDSU agricultural experiment station south of Minot,
which will pass an electrical current through water to separate hydrogen
and oxygen. The hydrogen will be used to help fuel the prototype tractor
and three pickup trucks that can run on hydrogen, regular gas and E85
ethanol-blended fuel. The modified tractor will be subjected to field
tests at the Minot experiment station plots.
Basin Electric Prepares to Launch Pilot Project Aug 23 2006 Andrea Blowers
National Rural Electric Cooperative Association
The production facility will be at the NDSU/NCREC research
site south of Minot. Basin Electric wind resources planned for the
project include two wind turbines located approximately 10 miles south
of the research center and two larger wind farms located near Edgeley,
ND, and Wilton, ND. These wind farms will provide the electricity
required for the hydrogen production process. As electricity is produced
by the wind turbines, it will be dynamically scheduled over the local
transmission system in “near real time” from the turbines to the
hydrogen production site. The dynamic scheduling will be done using
software currently being developed by Basin Electric and EERC. Meters at
the production facility and each wind farm will use telecommunication
paths to achieve the dynamic scheduling interconnection. ...Sen. Dorgan
says this project has enormous implications for the future of wind
energy, hydrogen power and economic growth in America’s Heartland. “
North Dakota is positioned to become a world leader in wind power, and
North Dakota scientists are already doing some of the most important
hydrogen technology work in the world.”
Hydrogen-Wind ProjectSeptember 17, 2004
North Dakota sustainable Energy for Economic Development
Wayne Backman, Senior vice president of generation at Basin
Electric, said funding for this project could be a major step toward
efficiently producing hydrogen fuel using wind energy in North Dakota.
“While research is always uncertain, the effort is centered on the
creation of a wind-to-hydrogen facility and accompanying hydrogen uses.”
Dedication of a $2 million project between the National
Renewable Energy Laboratory and Xcel Energy at the National Wind
Technology Center 12/14/2006. The Wind to Hydrogen Project will examine
the systems intergration issues with wind-hydrogen production,
compression, storage and use. Shown l-r: NREL scientist Ben Kroposki, NREL
Director Dan Arvizu, Xcel Chairman Dick Kelly and Project Leader Frank
Novachek. Credit: Jack Dempsey
Wind-to-Hydrogen Project Video
This video features the wind-to-hydrogen project, which uses electricity
from wind turbines to produce hydrogen at NREL's National Wind Technology
Center.
"Converting wind energy to
hydrogen
means that it doesn't matter
when the wind blows since its energy can be stored
on-site in the form of hydrogen." Dick Kelly, CEO of Xcel Energy
Clean Energy Blowin' in the Wind
Steve Raabe Denver Post
December 14, 2006
The facility links two wind turbines
to devices called electrolyzers, which pass the wind-generated electricity
through water to split the liquid into hydrogen and oxygen. The hydrogen
can be stored and used later to generate electricity from either an
internal combustion engine turning a generator or from a fuel cell. In
either case, there are no harmful emissions, and the only by-product from
using the hydrogen fuel is water.
On site is a new building that houses the electrolyzers and a device to
compress the hydrogen for storage; four large, high-tech tanks to store
the hydrogen; a generator run by an engine that burns hydrogen; and
a control room building, where computers monitor all the steps of the
process. Xcel and NREL are each paying part of the $2 million budget for
the two-year project.
DENMARK'S FIRST HYDROGEN PLANT OPENS The Copenhagen Post (DK)
May
24, 2007
Backers are promoting the facility as a way to solve
the problems
with excess energy produced from windmills.
"The large investors in California
need locally based facilities where they can test new environmental
technologies at full scale, in order to see whether it is possible to
bring them the critical way from the desk to the market. Lolland has
arranged itself in a way which is perfect to become such a test area." Californian Assemblyman Fred Keeley
"The Americans are very interested
in how to integrate large amounts of renewable energy into the existing
net. Denmark has gained experience in this over many years, and Lolland is
now offering the opportunity to test it in practice." Peter Winarsky of Innovation Center Denmark,
Silicon Valley
California Shows Interest in Lolland Testing Facility for Renewables Ministry of Foreign Affairs of Denmark
May 24, 2007
"Our goal is to use
fuel cells to produce heat and electricity right at people's homes," said
Nakskov's mayor, Flemming Bonne Hansen according to Borsen, adding that he
hoped the investment in the region by fuel cell developers would also
bring jobs to the local economy.
Lolland Community Testing Facilities Director Gunnhild Utkvitne, Baltic Sea Solutions
Project Director Leo Christensen, Municipality of Lolland, Denmark
February 1, 2007
Southern California Edison Unveils Hydrogen DemonstrationKevin Smith San Gabriel
Valley Tribune
May 23, 2007
Southern California Edison and Chevron Technology Ventures LLC unveiled a
hydrogen energy station evaluation and demonstration program Monday at SCE's
Rosemead headquarters. ...The SCE facility includes a state-of-the-art alkaline
electrolyzer that generates up to 40 kilograms of hydrogen a day, a
power-analyzing system that gathers energy-impact data on the hydrogen
production process, advanced and redundant safety systems and a fleet of up to
nine zero-emission Hyundai fuel-cell cars, which will be evaluated.
Mike Strizki:
The Zero-Energy Solution Mark Svenvold
The New York Times
May 20, 2007
The implications of the solar-hydrogen
house are immense. Eventually, it seems, for the price of a home-improvement
loan, millions of homeowners could install solar-hydrogen systems, with zero
emissions, generating 100-percent clean renewable energy.
BREAKTHROUGH
(A) Low-magnification SEM image of a
platinum tetrahexahedral nanocrystal and its geometrical model. (B)
High-resolution transmission electron microscopy image recorded from a
platinum tetrahexahedral nanocrystal to reveal surface atomic steps in the
areas made of (210) and (310) sub-facets.
Depending on conditions, the
new nanocrystals can be as much as four times more catalytically active
per unit area than existing commercial catalysts. But since the new
structures tested are more than 20 times larger than existing platinum
catalysts, they require more of the metal – and hence are less active per
unit weight.
In a recent study, scientists have
demonstrated that a hybrid system of hydrogen and carbon can produce a
sufficient amount of liquid hydrocarbon fuels to power the entire U.S.
transportation sector. Using biomass to produce the carbon, and solar
energy to produce hydrogen, the process requires only a fraction of the
land area needed by other proposed methods.
Hydrogen
Pioneer and European Leader
Linde
Presents 3 Excellent New Hydrogen Fuel Videos
April 16, 2007
Requires
Flash Player
Due to EU popularity, these files
can take a long time to download
There are no electric
transmission lines to transport wind-generated electricity from the
Plains, and building enough lines wouldn't be feasible. Leighty's proposed
solution is to use the wind to produce hydrogen and ship it to population
centers through pipelines. At the end of the pipes, the hydrogen could be
burned as a motor fuel, converted back into electricity to power homes and
businesses, or used to manufacture ammonia or other chemicals. His
proposal has one more element - 15,000 salt caverns on the Plains to store
hydrogen underground, to assure a steady supply would be available when
the wind isn't blowing.
In order to manufacture
hydrogen, the LVVWD’s fueling station uses solar panels to collect energy
from the sun. Then, through electrolysis, hydrogen is removed from water
that is then stored and used as fuel.
The project is part of a
multi-faceted research project that received $12 million in research and
development funding from the Department of Energy. An additional $4
million was contributed in matching funds. Other components of the project
include a hydrogen safety workshop; a hydrogen road-mapping exercise for
Nevada; research into the production of hydrogen using photoelectric
chemistry; and improvements on membrane and electrolyzer performance and
efficiency.
"Our technology is designed to help
make wind power a more reliable, affordable and scalable power generating
solution and thereby expand the penetration of wind power in energy
markets." Dr. Tapan Bose, President HEC
By integrating HEC Oxx Power™
generator systems with wind-sourced power, customers can bring on line a
sustainable solution that extends the capacity and value of wind energy,
while reducing customers' dependence on petroleum and gas burning
technology.
Solar-Powered Hydrogen Generation
Rust-based solar panels could make
hydrogen cheap and efficient Kevin Bullis
Technology Review
December 12, 2006
Researchers in Switzerland have
demonstrated more-efficient water-splitting solar cells based on a cheap,
abundant, and long-lasting material: rust. The advance could lead to a
cheap and energy-efficient way to generate hydrogen for fuel-cell vehicles
using solar energy. ...The findings suggest several strategies that could
help the iron-oxide-based panel reach the 10 percent efficiency level that
would make the technology competitive with current ways of creating
hydrogen...
Hydrogen
Pioneer and European Leader
Linde
Presents 3 Excellent New Hydrogen Fuel Videos
April 16, 2007
Requires
Flash Player
Due to EU popularity, these files
can take a long time to download
"Converting wind energy to
hydrogen
means that it doesn't matter
when the wind blows since its energy can be stored
on-site in the form of hydrogen." Dick Kelly, CEO of Xcel Energy
Clean Energy Blowin' in the Wind
Steve Raabe Denver Post
December 14, 2006
The facility links two wind turbines
to devices called electrolyzers, which pass the wind-generated electricity
through water to split the liquid into hydrogen and oxygen. The hydrogen
can be stored and used later to generate electricity from either an
internal combustion engine turning a generator or from a fuel cell. In
either case, there are no harmful emissions, and the only by-product from
using the hydrogen fuel is water.
On site is a new building that houses the electrolyzers and a device to
compress the hydrogen for storage; four large, high-tech tanks to store
the hydrogen; a generator run by an engine that burns hydrogen; and
a control room building, where computers monitor all the steps of the
process. Xcel and NREL are each paying part of the $2 million budget for
the two-year project.
Imagine the future of
energy. The future might look like a new power plant on the edge of
town—an inconspicuous bioreactor that takes in yard waste and
locally-grown crops like corn and wood chips and churns out electricity to
area homes and businesses. Or the future may take the form of a
stylish-looking car that refills its tank at hydrogen stations. Maybe the
future of energy looks like a device on the roof of your own home – a
small appliance, connected to the household electric system, that uses
sunlight and water to produce the electricity that warms your home, cooks
your food, powers your television, and washes your clothes.
All these futuristic energy technologies may become reality
some day, thanks to the work of the smallest living creatures on earth:
microorganisms. “Microbial energy conversion” is the shorthand term for
technologies like these. In
microbial energy technologies,microorganisms make fuels out of
raw organic materials, thereby converting the chemical energy in the
biomass into chemical energy in the form of ethanol or hydrogen, for
example. In addition, microbes can convert solar energy to hydrogen.
Those fuels are then burned to make electrical energy or, in the case of
internal combustion engines, kinetic energy to power a car.
Another technology that falls
under the heading of microbial energy conversion is the microbial fuel
cell, a bioreactor in which bacteria transform the chemical energy in
biomass directly into electrical energy.
The world faces a potentially crippling energy crisis in the
next 30 to 50 years. ...The
means of preventing the twin catastrophes of energy scarcity and
environmental ruin is not clear, but one part of the solution may lie in
microbial energy conversion.
An Answer to the World's Energy Problems?
Bacteria Could Be the Source of an Unlimited
Supply of Power Lee Dye ABC
NewsDecember 1,
2006
The smallest creatures on the
planet may help solve one of the world's biggest problems, according to
a new report from a distinguished panel of scientists.
VIDEO: Tasios Melis discusses
his groundbreaking discovery of
genetically modified hydrogen-producing bacteria. Click on image to view movie.
RealPlayer required
Do deep subterranean bacteria create
the hydrogen that makes oil and natural gas - and someday promise humanity
unlimited clean power?
Hydrogen in Rocks:
An Energy Source for Deep Microbial
Communities
FRIEDEMANN FREUND, J. THOMAS DICKINSON, and
MICHELE CASH Recent estimates suggest the mass
of the subsurface biosphere may exceed the mass of all other life forms on
Earth.
Scientists have combined two
molecules that occur naturally in blood to engineer a molecular complex
that uses solar energy to split water into hydrogen and oxygen.
...This molecular complex can use energy from the sun to create hydrogen
gas, providing an alternative to electrolysis, the method typically used
to split water into its constituent parts. The breakthrough may pave the
way for the development of novel ways of creating hydrogen gas for use as
fuel in the future.
When Kitchen Waste Isn't Wasted Upscale Bay Area restaurants helping
feed machine
that turns scraps into electricity, vehicle fuel Glen Martin
San Francisco Chronicle
October 25, 2006
Popular Mechanics Magazine Awards GE Researchers
for Electrolysis Breakthrough The Business Review (NY)
October 6, 2006
The GE design uses a special plastic to replace
expensive metal parts. Metal coating techniques borrowed from aircraft engine
and power turbine products were used to make high performance electrodes at
low processing costs.
The board of the New York Power Authority approved the
"hydropower-to-hydrogen" plan Tuesday, and Pataki is expected to formally
announce it today. Transit buses and state fleet vehicles are among the
possible hydrogen-consuming vehicles.
"It puts New York State in the cutting edge of this
clean-fuel technology," Power Authority spokesman Michael Saltzman said.
Details of the plan released Tuesday envision two fueling
stations at undetermined locations, potentially at Niagara Falls State
Park and at locations operated by the Niagara Frontier Transportation
Authority.
more
Wind farm operator Wind Hydrogen Ltd has bought the rights to
Australia's most powerful wind farm a week after announcing plans to raise
new capital and float on the Australian Stock Exchange.
The renewable energy company said it had entered into an
asset purchase agreement for the 232-megawatt Mount Gellibrand project at
Colac in Victoria, which it estimates to be worth $460 million on
completion.
"Wind Hydrogen will acquire the project for an undisclosed
sum from German development group Pro Ventum International GmbH, which
will continue to have an advisory role on the project's development and
will retain a minority interest," WHL said in a statement.
more