Not exact matches
Some of the other projects involve the development of proton exchange membrane for
fuel cell application, a gyroscope based on micro-electromechanical technology and research on innovative engineering materials to fabricate ceramic membranes that can partially oxidize methane to syngas used
as feedstock in commercial methanol production.
Next steps include expanding the use of the technology to different
applications, such
as solar and
fuel cells; and using the battery to power different kinds of electronic devices.
In industry and commerce,
applications range from food and fertilizer manufacture to crude oil cracking to utilization
as an energy source in
fuel cells.
Cost - effective
applications for
fuel cells have been identified for material handling equipment,
as well
as primary and backup power for data centers and telecommunication systems, he said.
LIG can be written into target materials in patterns and used
as a supercapacitor, an electrocatalyst for
fuel cells, radio - frequency identification (RFID) antennas and biological sensors, among other potential
applications.
Strontium cobaltites are just one example of a class of materials known
as transition metal oxides, which is considered promising for a variety of
applications including electrodes in
fuel cells, membranes that allow oxygen to pass through for gas separation, and electronic devices such
as memristors — a form of nonvolatile, ultrafast, and energy - efficient memory device.
These results provide an important step towards possible future
applications as a luminescent material, such
as for lighting and displays,
as well
as light absorbers in solar
cells and photocatalysts for producing solar
fuel.
«These composites, which have less than 1 percent metal, respond
as «super catalysts» for
fuel -
cell applications.
Those «very best»
cells are close to becoming cost - competitive with fossil
fuels such
as coal in some
applications but are themselves expensive and impractical for consumer electronics — hence Kyocera's interest in the film.
The nanoplatelets feature enough edge to make them suitable
as catalysts for
applications like
fuel cells.
Understanding these effects quantitatively is important in order to develop this promising family of materials for potential
applications including new types of low - energy computer memory and processing devices, electrically based refrigeration, and electro - catalytic energy - conversion devices such
as fuel cells.
She has extensive research experience in the development and
application of novel electron microscopy techniques for energy materials, such
as lithium ion battery materials and
fuel cell catalysts.
New composite material that traps oxygen selectively could be useful for energy
applications such
as fuel cells
It will focus on catalyst development for four
applications: proton exchange membrane
fuel cells to convert stored energy in non-fossil
fuels into electricity; electrolysers for splitting water into oxygen and hydrogen — a potential clean
fuel cell source; syngas, a mixture of CO and H2, which is generated from coal, gas and biomass, and widely used
as a key intermediate in the chemical industry; and lithium - air batteries.
Researchers at Jilin University in China have developed a new class of self - assembled crystalline porous organic salts (CPOSs) featuring high proton conductivity for
applications such
as proton - exchange membranes for
fuel cells.
Honda's next - generation
fuel cell - electric vehicle will feature a
fuel cell powertrain packaged completely in the engine room of the vehicle, allowing for efficiencies in cabin space
as well
as flexibility in the potential
application of FC technology to multiple vehicle types in the future.
Once lauded
as the future of clean transportation and energy storage in a variety of other
applications, hydrogen - based
fuel cell systems have a great many barriers to adoption, one of which is lack of hydrogen infrastructure, and the other is the need to develop hydrogen production sources that aren't fossil
fuel - based or that require more energy to produce than can be released in the
fuel cell.
With FIDO operational, Guy worked on a number of different projects, including research on the efficiency of
fuel cells, research on German aviation
fuel as inferred from the spectrographic analysis of aircraft exhaust, not to mention the design and testing of
fuel baffles, experimental forest - clearing devices, and
fuel propellant systems (including flamethrowers — an
application the pacifically - minded Guy must have disliked.)
As weight and size do not pose serious limitations for stationary
fuel cell applications, there is good reason to be optimistic that the potential for stationary
fuel cells will be realized long before mobile commercial
applications become widespread.