
On Mon, Oct. 19, 2009, CFCI and NYSTAR bring you the Second Annual Fuel Cell Ride & Drive Event!
3 cars.
3 companies.
Chances for over 50 people,
Cornellians and Ithacans, to experience fuel cell transportation first-hand!
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More info at the Event Website.
Click here.
In May, the Third Annual Energy Symposium at Cornell focused on fuel cells as well as three other critical new energy technology areas.
Batteries & Energy Storage
Solar Photovoltaic Technology
Efficient Lighting
In collaboration with our partners at Rensselaer Polytechnic Institute in the NYSTAR designated CAT for Future Energy Systems, we expanded the scope of talks, posters, and networking available to conference attendees.
Click here for Symposium Program, Registration and more info.
CFCI researchers have successfully built a mesoporous metal material. The resulting platinum electrode exhibits very high activity compared to either nanoparticle or bulk analogs.
This is the first example of this long-sought acheivement.
Click here for more details on the NEWS page.
As described below, fuel cells are devices that enable highly efficient generation of electricity from a chemical fuel. There are many different types of fuel cell, and several of these are already being succesfully commercialized as stationary electric generators, for example. The Cornell Fuel Cell Institute has aimed our research at developing advanced materials for a particular kind of fuel cell: lower-temperature, polymer electrolyte membrane (PEM) fuel cells. Many automobile manufacturers, together with the US Department of Energy, are focusing on PEM fuel cells for the cars of the future. When we hear about cars driving on hydrogen, we are hearing about fuel cell cars — and probably PEM based fuel cell cars.
Engineering advancements of PEM fuel cells have advanced to a point where the barriers to further improvements in efficiency now lie in the materials used in the fuel cell components: the anode, the cathode, the membrane and interfaces and, where applicable, the reformer. At CFCI, our multidisciplinary approach to develop new materials takes advantage of a high-throughput exploration strategy that allows a large number of samples, e.g., with varying composition, to be synthesized simultaneously and evaluated using rapid automated probes. In addition, CFCI researchers uses a combination of theory and experiment to study fundamental questions of catalytic oxidation at specific intermetallic surfaces and identification / design of high energy density fuels. ...
All fuel cells directly convert the energy released in certain chemical reactions to electricity. Because of this direct extraction of electrons, fuel cells are the only energy conversion device that enable us to generate electricty from a chemical fuel at efficiencies appraoching 100%. Today's fuel cells are already operating near 60% efficiency, or better. In lower temperature PEM (polymer electrolyte membrane) fuel cells, (schematic shown above) these reactions are primarily combustion (oxidation) of hydrogen or a carbonaceous fuel, to electrical energy.