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Grant: Collaborative Research and Development Grants

University of British Columbia

$129,667.00

Closing the carbon cycle: optimization of direct air capture process and conversion of ambient CO2 into synthetic fuel

EF 2018-19

Résumé
As atmospheric carbon dioxide levels continue to rise, reaching the 2°C targets (announced in Paris in 2015) will require breakthroughs in disruptive technologies to reduce greenhouse gas (GHG) emissions. In collaboration with our industrial partner (Carbon Engineering) we are improving the technologies required to absorb CO2 through Direct Air Capture (DAC) to reduce emissions from distributed sources, e.g. airplanes, trucks, and ships. CE has built and is operating a DAC demonstration plant in Squamish, BC, with the goal to capture 500 kg CO2 per day. The first commercial plant is planned for construction in Canada, and the captured CO2 will be used for the production of low carbon fuels.*The most challenging scientific and technical barriers for the CO2-to-fuels pathway include achieving high plant efficiency for the DAC process, and developing a reliable and cost efficient model for CO2 conversion into fuel precursors (i.e., CO). Currently, the CO2 reduction technologies with the highest readiness level are the reverse water-gas-shift (rWGS) reaction , and the electrochemical conversion of CO2 in low temperature electrolyzers. However, low conversion efficiency coupled with high costs reamain barriers for commercialization. *The proposed research aims to reduce the cost and improve the efficiency of air-to-fuel conversion. We propose three interrelated research themes: A) DAC plant efficiency optimization, B) CO2 to CO conversion via rWGS reaction, and C) electrochemical CO2 reduction to produce fuel precursors.
Programme
Collaborative Research and Development Grants
Emplacement
British Columbia, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
NSERC's Awards Data

Tel que publié

Application id
505345-2016
Name nom
Mérida, Walter
Department département
Mechanical Engineering
Organization id
2
Institution établissement
University of British Columbia
Province en
British Columbia
Province fr
Colombie-Britannique
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2018
Competition year année de concours
2016
Award amount
129667
Program id
CRDPJ
Program name en
Collaborative Research and Development Grants
Program name fr
Subventions de recherche et développement coopérative
Group en
Research partnerships programs
Group fr
Programmes de partenariat
Committee code
96
Committee name en
RPP Internal Decision Cttee
Committee name fr
Cté de décision interne - PPR
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
2300
Research subject group en
Fuel and energy technology
Research subject group fr
Combustibles et technologie de l'énergie
Research subject en
Fuel and energy technology (economic geology, use 4003)
Research subject fr
Combustibles et technologie de l'énergie (géologie économique, utiliser 4003)
Partie
2
Nb partie
2
Application title
Closing the carbon cycle: optimization of direct air capture process and conversion of ambient CO2 into synthetic fuel
Keyword
NSERC
Application summary
As atmospheric carbon dioxide levels continue to rise, reaching the 2°C targets (announced in Paris in 2015) will require breakthroughs in disruptive technologies to reduce greenhouse gas (GHG) emissions. In collaboration with our industrial partner (Carbon Engineering) we are improving the technologies required to absorb CO2 through Direct Air Capture (DAC) to reduce emissions from distributed sources, e.g. airplanes, trucks, and ships. CE has built and is operating a DAC demonstration plant in Squamish, BC, with the goal to capture 500 kg CO2 per day. The first commercial plant is planned for construction in Canada, and the captured CO2 will be used for the production of low carbon fuels.*The most challenging scientific and technical barriers for the CO2-to-fuels pathway include achieving high plant efficiency for the DAC process, and developing a reliable and cost efficient model for CO2 conversion into fuel precursors (i.e., CO). Currently, the CO2 reduction technologies with the highest readiness level are the reverse water-gas-shift (rWGS) reaction , and the electrochemical conversion of CO2 in low temperature electrolyzers. However, low conversion efficiency coupled with high costs reamain barriers for commercialization. *The proposed research aims to reduce the cost and improve the efficiency of air-to-fuel conversion. We propose three interrelated research themes: A) DAC plant efficiency optimization, B) CO2 to CO conversion via rWGS reaction, and C) electrochemical CO2 reduction to produce fuel precursors.