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Grant: Alliance Grants

Université d'Ottawa

$25,000.00

Laser-induced surface chemistry for enhancing CO2 reduction on copper catalysts

FY 2023-24

Summary
Our reliance on fossil fuels and impact on the climate is not sustainable and requires immediate action.One way of addressing these issues is to transform CO2, the main molecule responsible for green houses gas effects and global warming, into useful fuels. There has been a strong effort in recent years to develop catalysts that can reduce CO2 into synthetic fuels by using visible light. However, the scalability of catalysts at an industrial scale and the limited efficiency of the CO2 reduction reaction are limiting the implementation of these catalysts.Here, we propose to fabricate copper-based catalysts using ultrafast lasers to simultaneously control morphology and surface chemistry. These catalysts are easily scalable and will use visible light to reduce CO2. For this project to be be successful, the expertise available at the University of Ottawa in laser texturing and CO2 reduction will be complemented with the expertise at the Jean-Monnet University in St-Etienne, France on surface engineering using ultrafast lasers and modelling tools to better understand laser-matter interactions. This collaboration will help us get closer to a scalable CO2 reduction solution and ultimately contribute to reducing green-house gas emissions and limit the effects of climate change.
Program
Alliance Grants
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data

As published

Application id
581158-2022
Name nom
Weck, Arnaud AG
Department département
Mechanical Engineering
Organization id
28
Institution établissement
Université d'Ottawa
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2023
Competition year année de concours
2022
Award amount
25000
Program id
ALLRP
Program name en
Alliance Grants
Program name fr
Subventions Alliance
Group en
RESEARCH PARTNERSHIPS
Group fr
PARTENARIATS DE RECHERCHE
Committee code
96
Committee name en
RPP Internal Decision Cttee
Committee name fr
Cté de décision interne - PPR
Area of application code
500
Area of application group en
Manufacturing processes and products
Area of application group fr
Procédés et produits industriels
Area of application en
Manufacturing processes and products
Area of application fr
Procédés et produits industriels
Research subject code
2001
Research subject group en
Materials science and technology
Research subject group fr
Materials structure, properties and testing
Research subject en
Science et technologie des matériaux
Research subject fr
Structure, propriétés et essais des matériaux
Application title
Laser-induced surface chemistry for enhancing CO2 reduction on copper catalysts
Keyword
CO2 reduction; Electrocatalysis; Laser-based manufacturing; Materials manufacturing; Nanomaterials; Nano micro texturing; Photonics; Plasmonics; Surface chemistry; Ultrafast laser
Application summary
Our reliance on fossil fuels and impact on the climate is not sustainable and requires immediate action.One way of addressing these issues is to transform CO2, the main molecule responsible for green houses gas effects and global warming, into useful fuels. There has been a strong effort in recent years to develop catalysts that can reduce CO2 into synthetic fuels by using visible light. However, the scalability of catalysts at an industrial scale and the limited efficiency of the CO2 reduction reaction are limiting the implementation of these catalysts.Here, we propose to fabricate copper-based catalysts using ultrafast lasers to simultaneously control morphology and surface chemistry. These catalysts are easily scalable and will use visible light to reduce CO2. For this project to be be successful, the expertise available at the University of Ottawa in laser texturing and CO2 reduction will be complemented with the expertise at the Jean-Monnet University in St-Etienne, France on surface engineering using ultrafast lasers and modelling tools to better understand laser-matter interactions. This collaboration will help us get closer to a scalable CO2 reduction solution and ultimately contribute to reducing green-house gas emissions and limit the effects of climate change.