Abstract
The University of Central Florida invention is a design strategy for discovering new materials and catalysts for energy conversion. The method seeks to regulate the local bonding and local coordination environment (LCE) of the classic metal-nitrogen-carbon (M-N-C) catalysts by infusing fluorine (F)-coordination. As a result, the rationally designed catalyst shows a maximum power density of 0.57 W cm-2 and more than 5,900 hours of operation in direct ethanol fuel cells, outperforming benchmarking catalysts. The tactic of F-induced LCE regulation can be applied to other catalysts with drastically improved activities and stabilities.
Benefit
VersatileEnhances the catalyst durability by inhibiting the migration and agglomeration of Palladium (Pd)Provides carbon support with long-term anti-corrosion propertyMarket Application
Electric vehiclesPortable power supplies
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