Ionic liquids (ILs) consisting entirely of ions exhibit many fascinating and tunable properties,
making them promising functional materials for a large number of energy-related …

Metal–organic frameworks (MOFs) represent the largest known class of porous crystalline
materials ever synthesized. Their narrow pore windows and nearly unlimited structural and …

The increase in the level of greenhouse gases into the environment, specifically carbon
dioxide (CO 2), leads to global warming, and limiting its emission has been a primary …

The inherent structure tunability, good affinity with CO2, and nonvolatility of ionic liquids (ILs)
drive their exploration and exploitation in CO2 separation field, and has attracted …

Membrane technology for gas separation has attracted significant attention because of its
low energy consumption. However, most polymeric membranes suffer from the trade-off …

As research into metal–organic frameworks (MOFs) enters its third decade, efforts are
naturally shifting from fundamental studies to applications, utilizing the unique features of …

Biogas is an increasingly attractive renewable resource, envisioned to secure future energy
demands and help curb global climate change. To capitalize on this resource, membrane …

Combination of membrane processes and ionic liquids have received more and more
attention in pollutants removal because it enhances separation efficiency but also broaden …

This paper presents details of recent research progress on CO 2 separation membranes and
membrane processes using ionic liquids (ILs) over the past few years, including supported …

The main purpose of research in membrane gas separation is to develop membranes with
high permeability and selectivity. Historically, the gas separation performance of polymeric …