The question has shifted from whether solid sorbents can work in direct air capture (DAC)
technologies to which solid sorbents are more economically advantaged. Determining this is …

Amine-functionalized porous solid materials are effective sorbents for direct air capture
(DAC) of CO2. However, they are prone to oxidative degradation in service, increasing the …

Amine-functionalized CO 2 adsorbents are very promising materials for carbon capture and
direct air carbon capture because of their high CO 2 uptake capacity and low regeneration …

Zeolites, silica-supported amines, and metal–organic frameworks (MOFs) have been
demonstrated as promising adsorbents for direct air CO2 capture (DAC), but the sha** …

Polymers of intrinsic microporosity (PIMs) are attractive materials for gas adsorption due to
their high surface area and interconnected microporosity. However, the low CO2 affinity of …

The removal of trace carbon dioxide (CO 2) from acetylene (C 2 H 2) through adsorption
poses a significant challenge due to their similar kinetic diameters and physical properties …

Direct air capture (DAC), being able to remove the accumulated CO 2 in atmosphere and
CO 2 carbon emission from discrete sources, is a promising technology for mitigating the …

Aminopolymer‐based adsorbents are commonly investigated for CO2 direct air capture
(DAC). In the presence of high temperature and oxygen, which can occur during adsorption …

Amine-based adsorbents are widely used for CO 2 capture. However, one of the biggest
hurdles for their further development is their limited oxidation stability. Moreover, methods …

This study presents a comprehensive cradle-to-gate life cycle assessment (LCA) of synthetic
methanol production, integrating low-temperature solid sorbent direct air capture (DAC) …