Grant: Alliance Grants
Concordia University
$45,000.00
Production de Méthane Vert en Combinant la Conversion D'électricité en Gaz et la Capture du CO2 à L'aide de Réseaux Métal-Organiques
FY 2022-23
Summary
The United Nations Environment Program (UNEP) estimates that we release 50 billion tonnes (50 x 10^9 t) of greenhouse gases (GHGs) globally into the atmosphere annually. Of this number, 37 billion tonnes is CO2, and the rest is primarily methane. Two immediate solutions to this problem include 1) reducing our annual GHG production, and 2) limiting what is released into the atmosphere by using materials and methods to capture CO2 and other gases. Since efforts to reduce our production of GHGs have not been sufficient, all G7 governments are investing heavily in research and development on CO2 mitigation technologies. These technologies include storage methods in which the CO2 is either mineralized in the form of carbonates, or buried underground by injection, or stored in porous materials. Although these latter approaches reduce the presence of CO2 in the atmosphere, they do not help close its life cycle. In a circular economy and sustainable development approach, the captured CO2 could be valorized by transforming it into value-added chemicals, such as methane. Recycling stored CO2 with H2 generated by renewable electricity would not only reduce its impact on global warming but also close the life cycle of materials, a key factor in the circular economy.In recent years, a few studies have focused on the combination of CO2 capture and CO2 methanation in a single reactor using dual-functional materials (DFM) based on alkali metal oxides doped with Ni and Ru. In the present project, we will instead formulate a material consisting of two components: 1) a metal-organic framework (MOF) capable of adsorbing CO2 with high efficiency and capacity and 2) a MOF doped with Ru or Ni to convert the captured CO2 to methane. Our team aims to develop innovative materials, in combination with new types of reactors and processes, for the capture and methanation of CO2. The long-term objective is to develop an alternative, efficient, and profitable way to store but also to recover and use CO2, which will have a significant positive economic and social impact for Québec and Canada.
Program
Alliance Grants
Recipient
Location
Quebec, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
577130-2022
Name nom
Howarth, Ashlee AJ
Department département
Chemistry and Biochemistry
Organization id
70
Institution établissement
Concordia University
Province en
Québec
Province fr
Québec
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2022
Competition year année de concours
2022
Award amount
45000
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
400
Area of application group en
Environment
Area of application group fr
Environnement
Area of application en
Environment
Area of application fr
Environnement
Research subject code
3600
Research subject group en
Inorganic chemistry
Research subject group fr
Chimie inorganique
Research subject en
Inorganic chemistry
Research subject fr
Chimie inorganique
Installment
inst:1
Partie
1
Nb partie
1
Application title
Production de Méthane Vert en Combinant la Conversion D'électricité en Gaz et la Capture du CO2 à L'aide de Réseaux Métal-Organiques
Application summary
The United Nations Environment Program (UNEP) estimates that we release 50 billion tonnes (50 x 10^9 t) of greenhouse gases (GHGs) globally into the atmosphere annually. Of this number, 37 billion tonnes is CO2, and the rest is primarily methane. Two immediate solutions to this problem include 1) reducing our annual GHG production, and 2) limiting what is released into the atmosphere by using materials and methods to capture CO2 and other gases. Since efforts to reduce our production of GHGs have not been sufficient, all G7 governments are investing heavily in research and development on CO2 mitigation technologies. These technologies include storage methods in which the CO2 is either mineralized in the form of carbonates, or buried underground by injection, or stored in porous materials. Although these latter approaches reduce the presence of CO2 in the atmosphere, they do not help close its life cycle. In a circular economy and sustainable development approach, the captured CO2 could be valorized by transforming it into value-added chemicals, such as methane. Recycling stored CO2 with H2 generated by renewable electricity would not only reduce its impact on global warming but also close the life cycle of materials, a key factor in the circular economy.In recent years, a few studies have focused on the combination of CO2 capture and CO2 methanation in a single reactor using dual-functional materials (DFM) based on alkali metal oxides doped with Ni and Ru. In the present project, we will instead formulate a material consisting of two components: 1) a metal-organic framework (MOF) capable of adsorbing CO2 with high efficiency and capacity and 2) a MOF doped with Ru or Ni to convert the captured CO2 to methane. Our team aims to develop innovative materials, in combination with new types of reactors and processes, for the capture and methanation of CO2. The long-term objective is to develop an alternative, efficient, and profitable way to store but also to recover and use CO2, which will have a significant positive economic and social impact for Québec and Canada.