CO 2 capture and storage technologies are the most effective means of reducing CO 2
concentration in the atmosphere. Natural clay minerals possess a large specific surface area …

Carbon capture, utilization, and storage techniques are required to address concerns
related to global warming resulting from the rising atmospheric CO 2 concentration …

Clay minerals are abundant in caprock formations for anthropogenic storage sites for CO2,
and they are potential capture materials for CO2 postcombustion sequestration. We …

Widely available natural layered expandable clay minerals (smectites) can sorb carbon
dioxide in their interlayer space under specific conditions and hence may show potential for …

Due to the compact two-dimensional interlayer pore space and the high density of interlayer
molecular adsorption sites, clay minerals are competitive adsorption materials for carbon …

The extensive use of carbon capture methods is severely hampered by their high energy
consumption, which frequently outweighs the advantages to the environment. The benefits …

Developing new technologies for carbon sequestration and long-term carbon storage is
important. Clay minerals are interesting in this context as they are low-cost, naturally …

Abstract Calcium-silicate-hydrate (CSH) is a disordered, nanocrystalline material, acting as
a primary binding phase in Portland cement. CSH and CASH (an Al-bearing substitute …

Using a minimal model approach for interpreting the intermediate scattering function, F (Q, t),
to analyze quasi-elastic neutron scattering (QENS) data from interlayer water as a function of …

Several strategies for mitigating the build-up of atmospheric carbon dioxide (CO2) bring wet
supercritical CO2 (scCO2) in contact with phyllosilicates such as illites and smectites. While …