Naturally occurring clay minerals provide a distinctive material for carbon capture and carbon dioxide sequestration. Swelling clay minerals, such as the smectite variety, possess an aluminosilicate structure that is controlled by low-charge layers that readily expand to accommodate water molecules and, potentially, carbon dioxide. Recent experimental studies have demonstrated the efficacy of intercalating carbon dioxide in the interlayer of layered clays but little is known about the molecular mechanisms of the process and the extent of carbon capture as a function of clay charge and structure. A series of molecular dynamics simulations and vibrational analyses have been completed to assess the molecular interactions associated with incorp...
Capturing CO2 from the air and storing it or converting it into useful products is arguably the bigg...
We have investigated the ability of two modular phyllosilicates (palygorskite and sepiolite) to stor...
Carbon capture is among the most sustainable strategies to limit carbon dioxide emissions, which acc...
A good material for CO2 capture should possess some specific properties: (i) a large effective surfa...
Due to the compact two-dimensional interlayer pore space and the high density of interlayer molecula...
Widely available natural layered expandable clay minerals (smectites) can sorb carbon dioxide in the...
Classical atomistic simulations are carried out to study carbon sequestration at deep underground fo...
International audienceGrand Canonical Molecular Dynamics (GCMD) simulations were performed to invest...
International audienceIn situ XRD and NMR experiments combined with molecular dynamics simulations u...
The microscopic understanding of uptake and retention of supercritical carbon dioxide by expandable ...
Clay minerals can adsorb large amounts of CO2 and are present inanthropogenic storage sites for CO2....
Capturing CO2 from the air and storing it or converting it into useful products is arguably the bigg...
We have investigated the ability of two modular phyllosilicates (palygorskite and sepiolite) to stor...
Carbon capture is among the most sustainable strategies to limit carbon dioxide emissions, which acc...
A good material for CO2 capture should possess some specific properties: (i) a large effective surfa...
Due to the compact two-dimensional interlayer pore space and the high density of interlayer molecula...
Widely available natural layered expandable clay minerals (smectites) can sorb carbon dioxide in the...
Classical atomistic simulations are carried out to study carbon sequestration at deep underground fo...
International audienceGrand Canonical Molecular Dynamics (GCMD) simulations were performed to invest...
International audienceIn situ XRD and NMR experiments combined with molecular dynamics simulations u...
The microscopic understanding of uptake and retention of supercritical carbon dioxide by expandable ...
Clay minerals can adsorb large amounts of CO2 and are present inanthropogenic storage sites for CO2....
Capturing CO2 from the air and storing it or converting it into useful products is arguably the bigg...
We have investigated the ability of two modular phyllosilicates (palygorskite and sepiolite) to stor...
Carbon capture is among the most sustainable strategies to limit carbon dioxide emissions, which acc...