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Rensselaer Researchers Test Polymer Membrane for Fuel Cell and Hydrogen Applications
Rensselaer researchers have started a new fundamental
research project on the component that is often referred to as
the heart of a fuel cell — the polymer membrane. Researchers
are testing a new type of polymer membrane, created at
Rensselaer, for potential use in proton exchange membrane (PEM)
fuel cell and hydrogen applications. The project is funded by a
projected three-year, $900,000 grant from the U.S. Department
of Energy.
“Fuel cells have great potential to contribute to energy
solutions, but basic research is needed to better understand
how parts of the system can be optimized so that fuel cells can
be further developed into applied technologies,” says Brian
Benicewicz, professor of chemistry and chemical biology at
Rensselaer, director of the New York
State Center for Polymer Synthesis at Rensselaer, and
principal investigator for the project.
The grant is part of the federal
Hydrogen Fuel Initiative, a commitment of more than $64
million in research and development projects aimed at making
hydrogen fuel cell vehicle and refueling stations available,
practical, and affordable for American consumers by 2020,
according to the U.S. Department of Energy.
“Our research team has developed a new polymer membrane that
may facilitate hydrogen separation, purification, and transport
at high temperatures,” says Benicewicz. “Optimizing conditions
for the purification and separation of hydrogen is an essential
component to the fuel cell system that requires fundamental
research for development. As part of this project, these
membranes will be tested for use in applications that support
this goal.”
Benicewicz is collaborating on the project with Glenn
Eisman, research professor and director of the Center for Fuel
Cell and Hydrogen Research at Rensselaer; Sanat Kumar,
professor of chemical and biological engineering at Rensselaer;
and Steven Greenbaum, professor of physics at Hunter College of
the City University of New York. The researchers will study
membrane transport as it relates to conductivity mechanisms,
electrode interaction, and system modeling.
“The availability of reliable, sustainable, and secure
energy sources is paramount to solving the global energy
security problems facing humanity today,” said Omkaram “Om”
Nalamasu, vice president for research. “Rensselaer’s historical
strengths in materials, devices, and systems, combined with
rapidly growing research efforts in energy conservation and
renewable energy systems, will help to address the world’s
demand for affordable and environmentally benign energy.”
Read Press Release
Published
November 14,
2005
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