Grant: Discovery Grants Program - Individual
Memorial University of Newfoundland
$45,000.00
Kinetics, stoichiometry and product distributions of electrode reactions at novel electrocatalytic materials
FY 2017-18
Summary
This research program will provide knowledge and advanced materials that will enable efficient electrochemical energy production from biofuels such as ethanol, glycerol and fuels produced by the pyrolysis of waste biomass. Currently, fuel cells operated with these fuels are too inefficient for significant commercial development, due primarily to the low activities of the anode catalysts that are available, and the production of partial oxidation products (byproducts). Advances in the development of fuel cells powered directly by biofuels require new electrocatalytic materials that provide high power and high efficiencies. These will be designed and synthesized by combining different methods from the literature, and new approaches, to produce innovative multifunctional materials. Thus, a variety of metal oxides will be used to support platinum based catalytic nanoparticles, and control their activities for the pathways leading to complete and partial oxidation of the fuel. In addition, the structures and compositions of the metal nanoparticles will be varied to optimize power and efficiency. Improved and new experimental methods will be used to relate the wealth of knowledge that has been accumulated from fundamental studies, in liquid electrolytes under ambient conditions, to the higher temperature and pressure, flow conditions in a fuel cell with a polymer electrolyte. In this way, it will become possible to rapidly transfer discoveries from this research to end users. This will facilitate the development of ethanol fuel cells that are competitive with technologies based on fossil fuels, and enable the use of more complex biofuels. The primary long term objective is to increase the efficiencies of direct ethanol fuel cells to 50%, which will make them one of the best alternatives to internal combustion engines as low carbon power sources for vehicles. The results will address Canadas research priority in new materials for clean energy and energy efficiency, be important to the energy industry in Canada, and provide important environmental and financial benefits, while training highly qualified personnel to exploit these opportunities.
Program
Discovery Grants Program - Individual
Recipient
Location
Newfoundland and Labrador, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
RGPIN-2017-04260
Name nom
Pickup, Peter
Department département
Chemistry - Chemistry
Organization id
89
Institution établissement
Memorial University of Newfoundland
Province en
Newfoundland and Labrador
Province fr
Terre-Neuve-et-Labrador
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2017
Competition year année de concours
2017
Award amount
45000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
Discovery grants programs
Group fr
Programmes de subventions à la découverte
Committee code
1504
Committee name en
Chemistry
Committee name fr
Chimie
Area of application code
305
Area of application group en
Energy resources
Area of application group fr
Ressources d'énergie
Area of application en
Energy storage and conversion
Area of application fr
Stockage et transformation de l'énergie
Research subject code
3401
Research subject group en
Physical chemistry
Research subject group fr
Chimie physique
Research subject en
Electrochemistry
Research subject fr
Électrochimie
Partie
1
Nb partie
5
Application title
Kinetics, stoichiometry and product distributions of electrode reactions at novel electrocatalytic materials
Keyword
NSERC
Application summary
This research program will provide knowledge and advanced materials that will enable efficient electrochemical energy production from biofuels such as ethanol, glycerol and fuels produced by the pyrolysis of waste biomass. Currently, fuel cells operated with these fuels are too inefficient for significant commercial development, due primarily to the low activities of the anode catalysts that are available, and the production of partial oxidation products (byproducts). Advances in the development of fuel cells powered directly by biofuels require new electrocatalytic materials that provide high power and high efficiencies. These will be designed and synthesized by combining different methods from the literature, and new approaches, to produce innovative multifunctional materials. Thus, a variety of metal oxides will be used to support platinum based catalytic nanoparticles, and control their activities for the pathways leading to complete and partial oxidation of the fuel. In addition, the structures and compositions of the metal nanoparticles will be varied to optimize power and efficiency. Improved and new experimental methods will be used to relate the wealth of knowledge that has been accumulated from fundamental studies, in liquid electrolytes under ambient conditions, to the higher temperature and pressure, flow conditions in a fuel cell with a polymer electrolyte. In this way, it will become possible to rapidly transfer discoveries from this research to end users. This will facilitate the development of ethanol fuel cells that are competitive with technologies based on fossil fuels, and enable the use of more complex biofuels. The primary long term objective is to increase the efficiencies of direct ethanol fuel cells to 50%, which will make them one of the best alternatives to internal combustion engines as low carbon power sources for vehicles. The results will address Canadas research priority in new materials for clean energy and energy efficiency, be important to the energy industry in Canada, and provide important environmental and financial benefits, while training highly qualified personnel to exploit these opportunities.